ACCESSIBLE IGNITION AND FILTRATION DEVICES, METHODS, AND SYSTEMS

TECHNICAL FIELD

[0001] This disclosure relates to devices, systems, and methods for filtering smoke.

BACKGROUND

[0002] As of late, smoking via mechanical smoking devices has gained in popularity, however, there are still a great number of challenges associated with many such modern smoking devices. The available devices are often single units that are bulky and very difficult to fix when any single part fails. Typically, the failure of a part will result in a user having to purchase a new device and dispose of the entire device despite experiencing only a single component failure. This is due in part to the inability to access various failed parts in the device.

[0003] Another challenge arises from the unhygienic nature of many smoking devices in that smokers who choose to share their devices are required to utilize the same mouthpiece for several users therefore subjecting users to the communal spread of germs amongst one another. Furthermore, the internal components of smoking devices often experience component failure, a decline in device functioning, and distaste for the smoke product that is inhaled and exhaled as a result of using the device. Also, with respect to devices that provided filtration capabilities, users have no ability to know when a filter life has expired especially given that such filters are inaccessible to the user.

[0004] For instance, after several uses of the smoking device, the device will become dirty due to the buildup of smoke residue, tar, ash and other smoke byproducts that aggregate within device components and often clog that inner portions of a smoking device over time. Furthermore, the smoking devices typically don’t allow access to internal members of the device to clean the buildup of smoke byproducts. These cleaning challenges effectively doom the useful life of the smoking device and result in poor user experiences. Furthermore, high use components of smoking devices are inaccessible to replacement for any of an array of reasons. In such cases, even a cleaning of such components may not be possible or may not solve the problem at hand. Given all of the challenges associated with smoking devices, new solutions to overcome such challenges are needed.

SUMMARY [0005] The following presents a summary to provide a basic understanding of one or more embodiments of the invention. This summary is not intended to identify key or critical elements or delineate any scope of the particular embodiments or any scope of the claims. Its sole purpose is to present concepts in a simplified form as a prelude to the more detailed description that is presented later. In one or more embodiments described herein are systems, devices, apparatuses, and methods that employ components to facilitate filtered smoking.

[0006] According to a non-limiting embodiment, an ignition assembly is provided comprising a detachable igniter subassembly configured to disengage from a receiving portion of a smoking device via a first attachment mechanism. In another aspect, the ignition assembly includes an ignition block comprising a first female connection point configured to engage at least one wire engaged with a battery, wherein the ignition block is attached to the detachable igniter interaction cap via a second attachment mechanism. Also, the ignition assembly includes an ignition block receiver portion of the ignition block configured to engage a detachable igniter subassembly configured to ignite an ignitable portion of the smoking media.

[0007] In another non-limiting embodiment, a detachable filter assembly is provided comprising a detachable filter shell cup element that houses filtration media and is configured for insertion into or removal from a filter receiving portion of a device unibody. The detachable filter assembly also includes a filter shell lid element that integrates with the detachable filter shell cup element, wherein the filter shell lid element creates a hermetic seal between the detachable filter shell cup element and the filter shell lid element. In another aspect, the detachable filter assembly can include a filter inlet comprising a first opening within the detachable filter shell cup element configured to create a first hermetic seal around a filter inlet connector element of an ignition assembly based on a first mating between the filter inlet and the filter inlet connector element. In yet another aspect, the detachable filter assembly can include a filter outlet comprising a second opening within the detachable filter shell cup element, wherein the filter outlet is configured to create a first hermetic seal around a filter inlet connector element of the ignition assembly based on a second mating between the filter inlet and the filter inlet connector element.

[0008] According to another non-limiting embodiment, a detachable mouthpiece assembly is provided comprising a detachable mouthpiece component that is an interface configured to release inhaled smoke and receive exhaled smoke. In an aspect, the detachable mouthpiece assembly also includes an atrium component that is a housing structure configured to house a valve cartridge assembly and connect the detachable mouthpiece component via an atrium nipple component that is a nipple with at least one O-ring (or other elastomeric component) to grip the detachable mouthpiece component. In another aspect, the detachable mouthpiece assembly can include a vented holder component that is a sealing member comprising an air flow orifice that regulates the exchange of smoke or air between a heating tube cavity and the atrium component, wherein the vented holder component creates a hermetic seal between the vented holder component and a top of the heating tube. Also, detachable mouthpiece assembly can include a gasket component comprising a fin gasket configured to seal and hold a smoking media item in place, wherein the gasket component is encompassed by the vented holder component. [0009] In yet another non-limiting embodiment, an interchangeable valve assembly is provided comprising a detachable valve cartridge subassembly comprising an exterior portion configured to interlock with an interior receiving cavity of a smoke filtration device. In another aspect, the interchangeable valve assembly can include an interior portion comprising a set of valves mounted to a set of valve seats via a mounting mechanism, wherein pathway openings on the exterior portion are configured to align with smoking pathways of the smoking device.

[0010] In another non-limiting embodiment, an electronics subassembly of a smoke filtration device is provided comprising an electronics subframe that is a mounting structure for electronics components. In an aspect, the electronics components comprise a battery element that is mounted to the electronics subframe and configured to deliver power to smoking filtration device components. In another aspect, the electronics components include a control printed circuit board (PCB) that is a printed circuit board mounted to the electronics subframe, connected to the battery element and configured to electronically couple the smoking filtration device components to the battery element. Also, in an aspect, electronics components can comprise an air blower element that is a fan or air blower mounted to the electronics subframe, connected to the control PCB, and configured to pull a smoke flow or airflow through the smoking filtration device components. In yet another aspect, electronics components can include a UI PCB element that is a circuit board mounted to the electronics subframe, connected to the control PCB, and configured to manage communication between smoking filtration device components and a user interface.

BRIEF DESCRIPTION OF THE DRAWINGS

[0011] FIG. 1 illustrates a diagram of an example, right side view of a non-limiting smoking device 100 in accordance with one or more embodiments described herein. [0012] FIG. 2 illustrates a diagram of an example, back view of a non-limiting smoking filtration device 200 in accordance with one or more embodiments described herein.

[0013] FIG. 3 illustrates a diagram of an example, top view of a non-limiting smoking filtration device 300 in accordance with one or more embodiments described herein.

[0014] FIG. 4 illustrates a diagram of an example, right side view of a non-limiting smoking filtration device 400 and some internal components including the heating tube and filter cartridge revealed in the absence of a portion of the device casing in accordance with one or more embodiments described herein.

[0015] FIG. 5 illustrates a diagram of an example, left side view of a non-limiting smoking filtration device 500 and some internal components including the fan, filter cartridge and heating chamber tube revealed in the absence of a portion of the device casing in accordance with one or more embodiments described herein.

[0016] FIG. 6 illustrates a diagram of an example, right side view of a non-limiting smoking filtration device 600 and several internal components revealed within the device casing in accordance with one or more embodiments described herein.

[0017] FIG. 7 illustrates a diagram of an example, right side view of a non-limiting smoking filtration device 700 and several internal components revealed within the device casing in accordance with one or more embodiments described herein.

[0018] FIG. 8 illustrates a diagram of an example, bottom view of a non-limiting smoking filtration device 800 within the device casing in accordance with one or more embodiments described herein.

[0019] FIG. 9A illustrates a diagram of an example, left side view of a non-limiting smoking filtration device 900A and several internal components revealed within the device casing including a fan, filter cartridge, ignition assembly, heating chamber tube, and mouthpiece assembly in accordance with one or more embodiments described herein.

[0020] FIG. 9C illustrates a diagram of an example, perspective view that includes a right side, top side, and back side view of a non-limiting smoking filtration device 900C and several internal components revealed within the device casing in accordance with one or more embodiments described herein.

[0021] FIG. 9E illustrates a diagram of an example, perspective view that includes a right side view, front view, and bottom view of a non-limiting smoking filtration device 900E and several internal components revealed within the device casing in accordance with one or more embodiments described herein.

[0022] FIG. 9F illustrates a diagram of an example, perspective view of a non-limiting components of smoking filtration device 900F including the mouthpiece assembly, heating chamber tube, and filter receiving portion in accordance with one or more embodiments described herein.

[0023] FIG. 9G illustrates a diagram of an example, cross sectional perspective view of smoking filtration device 900G including the mouthpiece assembly, heating chamber tube, filter assembly, and thermistor bar in accordance with one or more embodiments described herein.

[0024] FIG. 9H illustrates a diagram of an example, non-limiting heating chamber tube and thermistor bar 900H in accordance with one or more embodiments described herein.

[0025] FIG. 10A illustrates a diagram of an example, non-limiting perspective view of smoking filtration device 1000A including a detachable atrium subassembly and media insertion mechanism in accordance with one or more embodiments described herein.

[0026] FIG. 10B illustrates a diagram of an example, non-limiting perspective view of smoking filtration device 1000B including a detachable atrium subassembly and media insertion mechanism with inserted smoking media in accordance with one or more embodiments described herein.

[0027] FIG. 10C illustrates a diagram of an example, non -limiting perspective view of smoking filtration device 1000C including a detachable atrium subassembly and media insertion mechanism with inserted smoking media in accordance with one or more embodiments described herein.

[0028] FIG. 11 A illustrates a diagram of an example, non-limiting perspective view of smoking filtration device 1100A including a detachable filtration assembly and filter insertion mechanism in accordance with one or more embodiments described herein.

[0029] FIG. 1 IB illustrates a diagram of an example, non-limiting perspective view of smoking filtration device 1100B including a detachable filtration assembly and filter insertion mechanism in accordance with one or more embodiments described herein.

[0030] FIG. 1 ID illustrates a diagram of an example, non-limiting perspective view of smoking filtration device HOOD including a detachable filtration assembly inserted within device HOOD and viewable absent an outer device casing in accordance with one or more embodiments described herein.

[0031] FIG. 1 IE illustrates a diagram of an example, non-limiting perspective view of smoking filtration device 1100E including a detachable filtration assembly inserted within device 1100E and viewable with the outer device casing in accordance with one or more embodiments described herein. [0032] FIG. 12A illustrates a diagram of an example, non-limiting top view of smoking filtration device 1200 A including an open burn chamber portion of device 1200 A in accordance with one or more embodiments described herein.

[0033] FIG. 12B illustrates a diagram of an example, non -limiting bottom view of smoking filtration device 1200B including an entry point into the ignition assembly via the detachable ignition plate of device 1200B in accordance with one or more embodiments described herein.

[0034] FIG. 12C illustrates a diagram of an example, non -limiting perspective view of smoking filtration device 1200C including an open burn chamber portion of device 1200 A in accordance with one or more embodiments described herein.

[0035] FIG. 13 A illustrates a diagram of an example, non-limiting right side view of ignition system of smoking filtration device 1300 A in accordance with one or more embodiments described herein.

[0036] FIG. 13B illustrates a diagram of an example, non -limiting cross-sectional view of ignition system and heating element of smoking filtration device 13006 in accordance with one or more embodiments described herein.

[0037] FIG. 13C illustrates a diagram of an example, non-limiting back view of ignition system and electronic system of smoking filtration device 1300C in accordance with one or more embodiments described herein.

[0038] FIG. 13D illustrates a diagram of an example, non-limiting left side view of ignition system of smoking filtration device 1300D in accordance with one or more embodiments described herein.

[0039] FIG. 13E illustrates a diagram of an example, non-limiting perspective view of ignition system and detachable spike igniter subassembly of smoking filtration device 1300E in accordance with one or more embodiments described herein.

[0040] FIG. 13F illustrates a diagram of an example, non-limiting perspective view of ignition system and detachable spike subassembly of smoking filtration device 1300F in the absence of a casing portion of device 13 OOF in accordance with one or more embodiments described herein.

[0041] FIG. 13H illustrates a diagram of an example, non-limiting perspective view of smoking filtration device 1300H in the absence of a casing portion of device 1300H and capturing a removal of the mouthpiece assembly with inserted smoking media in accordance with one or more embodiments described herein. [0042] FIG. 131 illustrates a diagram of an example, non-limiting right side view of smoking filtration device 13001 in the absence of a casing portion of device 13001 and capturing a removal of the mouthpiece assembly with inserted smoking media in accordance with one or more embodiments described herein.

[0043] FIG. 13 J illustrates a diagram of an example, non-limiting right side view of smoking filtration device 1300J in the absence of a casing portion of device 1300J and capturing a fully inserted mouthpiece assembly with inserted smoking media in accordance with one or more embodiments described herein.

[0044] FIG. 13K illustrates a diagram of an example, non-limiting perspective view of smoking filtration device BOOK in the absence of a casing portion of device BOOK and capturing a fully inserted mouthpiece assembly with inserted smoking media in accordance with one or more embodiments described herein.

[0045] FIG. 13L illustrates a diagram of an example, non-limiting perspective view of smoking filtration device BOOL and a cross-sectioned view of smoking media inserted into a fully inserted mouthpiece assembly with inserted smoking media in accordance with one or more embodiments described herein.

[0046] FIG. 13M illustrates a diagram of an example, non-limiting perspective view of the spike heating assembly BOOM in accordance with one or more embodiments described herein.

[0047] FIG. 13N illustrates a diagram of an example, non-limiting left side view of the spike heating assembly BOON in accordance with one or more embodiments described herein.

[0048] FIG. 130 illustrates a diagram of an example, non-limiting back view of the spike heating assembly 13000 in accordance with one or more embodiments described herein.

[0049] FIG. 13P illustrates a diagram of an example, non-limiting top view of the spike heating assembly 13 OOP in accordance with one or more embodiments described herein.

[0050] FIG. 13R-1 illustrates a diagram of an example, non-limiting cross sectional view of the front of smoking filtration device 1300R-1 and an insertion of a misaligned smoking media into device 1300R-1 in accordance with one or more embodiments described herein.

[0051] FIG. 13R-2 illustrates a diagram of an example, non-limiting cross sectional view of the front of smoking filtration device 1300R-2 and illustrates the igniter mounting lead-in aligning an initially misaligned smoking media item during insertion of the smoking media item in accordance with one or more embodiments described herein. [0052] FIG. 13R-3 illustrates a diagram of an example, non-limiting cross sectional view of the front of smoking filtration device 1300R-3 and illustrates the igniter mounting lead-in aligning an initially misaligned smoking media item to be aligned while fully inserted into device 1300R-3 in accordance with one or more embodiments described herein.

[0053] FIG. 13R-4 illustrates a diagram of an example, non-limiting cross sectional perspective view of smoking filtration device 1300R-4 and an insertion of the mouthpiece assembly with smoking media into device 1300R-4 in accordance with one or more embodiments described herein.

[0054] FIG. 13R-5 illustrates a diagram of an example, non-limiting cross sectional perspective view of smoking filtration device 1300R-5 and an insertion of the mouthpiece assembly with smoking media into device 1300R-5 in accordance with one or more embodiments described herein.

[0055] FIG. 13R-6 illustrates a diagram of an example, non-limiting cross sectional view of the front of smoking filtration device 1300R-6 with the mouthpiece assembly with smoking media fully inserted into device 1300R-6 in accordance with one or more embodiments described herein.

[0056] FIG. 13R-7 illustrates a diagram of an example, non-limiting cross sectioned front view of smoking filtration device 1300R-7 and an insertion of the mouthpiece assembly with smoking media into device 1300R-7 in accordance with one or more embodiments described herein.

[0057] FIG. 13R-9 illustrates a diagram of an example, non-limiting cross sectional view of the front of smoking filtration device 1300R-9 and illustrates an aligned insertion in the absence of contacting the igniter mounting lead-in smoking media fully in accordance with one or more embodiments described herein.

[0058] FIG. 13R-10 illustrates a diagram of an example, non-limiting top down view of the elliptical pocket of smoking filtration device 1300R-10 in accordance with one or more embodiments described herein.

[0059] FIG. 13R-11 illustrates a diagram of an example, non-limiting cross sectioned front view of a wide smoking filtration device 1300R-11 and an insertion of the wide smoking media into device 1300R-11 in accordance with one or more embodiments described herein.

[0060] FIG. 13R-12 illustrates a diagram of an example, non-limiting cross sectioned front view of a wide smoking filtration device 1300R-12 and an insertion of the wide smoking media into device 1300R-12 to contact the heating element at more than one contact point in accordance with one or more embodiments described herein. [0061] FIG. 13R-14 illustrates a diagram of an example, non-limiting right side view of smoking filtration device 1300R-14 including a detachable ignition assembly in accordance with one or more embodiments described herein.

[0062] FIG. 13R-15 illustrates a diagram of an example, non-limiting right side view of smoking filtration device 1300R-15 including the detachable ignition assembly removed from device 1300R-15 in accordance with one or more embodiments described herein.

[0063] FIG. 13R-16 illustrates a diagram of an example, non-limiting cross sectional right side view of smoking filtration device BOOR- 16 including a detachable ignition assembly in accordance with one or more embodiments described herein.

[0064] FIG. 13R-18 illustrates a diagram of an example, non-limiting right side view of smoking filtration device BOOR- 18 including the detachable ignition assembly removed from device BOOR- 18 in accordance with one or more embodiments described herein.

[0065] FIG. 13R-19 illustrates a diagram of an example, non-limiting right side view of smoking filtration device BOOR- 19 including a cross-sectioned view of detachable ignition assembly removed from device BOOR- 19 in accordance with one or more embodiments described herein.

[0066] FIG. 13R-20 illustrates a diagram of an example, non-limiting right side view of smoking filtration device 1300R-20 including a cross-sectioned view of detachable ignition assembly fully inserted within device 1300R-20 in accordance with one or more embodiments described herein.

[0067] FIG. 13R-21 illustrates a diagram of an example, non-limiting right side view of smoking filtration device 1300R-21 and a view of detachable ignition assembly fully inserted within device 1300R-21 in accordance with one or more embodiments described herein.

[0068] FIG. 13R-22 illustrates a diagram of an example, non-limiting right side view of smoking filtration device 1300R-22 with a mouthpiece assembly in the process of insertion into device 1300R-22 and an ignition assembly configured for insertion within the smoking media in accordance with one or more embodiments described herein.

[0069] FIG. 13R-23 illustrates a diagram of an example, non-limiting right side view of smoking filtration device 1300R-23 with a mouthpiece assembly fully inserted into device 1300R-23 and an ignition assembly configured for insertion within the smoking media in accordance with one or more embodiments described herein. [0070] FIG. 13R-24 illustrates a diagram of an example, non-limiting right side view of smoking filtration device components 1300R-24 with a threaded igniter interaction cap removed from device 1300R-24 in accordance with one or more embodiments described herein.

[0071] FIG. 13R-25 illustrates a diagram of an example, non-limiting right side view of smoking filtration device components 1300R-24 with a threaded igniter interaction cap inserted into device 1300R-25 in accordance with one or more embodiments described herein.

[0072] FIG. 13R-26 illustrates a diagram of an example, non-limiting cross-sectioned right-side view of smoking filtration device components 1300R-26 with a threaded igniter interaction cap inserted into device 1300R-26 and an interchangeable ignition component in accordance with one or more embodiments described herein.

[0073] FIG. 13R-27 illustrates a diagram of an example, non-limiting right-side view of smoking filtration device components 1300R-27 with a threaded igniter interaction cap inserted into device 1300R-27 and illustration of the igniter cables in accordance with one or more embodiments described herein.

[0074] FIG. 13R-28 illustrates a diagram of an example, non-limiting front view of smoking filtration device components 1300R-28 with a threaded igniter interaction cap inserted into device 1300R-28 and illustration of the igniter cables in accordance with one or more embodiments described herein.

[0075] FIG. 13R-29 illustrates a diagram of an example, non-limiting left-side view of smoking filtration device components 1300R-29 with a threaded igniter interaction cap inserted into device 1300R-29 and illustration of the igniter cables in accordance with one or more embodiments described herein.

[0076] FIG. 13R-30 illustrates a diagram of an example, non-limiting angled perspective view of smoking filtration device 1300R-30 with a threaded igniter interaction cap fully inserted into device 1300R-30 in accordance with one or more embodiments described herein.

[0077] FIG. 13R-31 illustrates a diagram of an example, non-limiting angled perspective view of smoking filtration device 1300R-31 with a threaded igniter interaction cap fully removed from device 1300R-31 in accordance with one or more embodiments described herein.

[0078] FIG. 13R-32 illustrates a diagram of an example, non-limiting partially cross-sectioned and angled perspective view of smoking filtration device 1300R-32 with a threaded igniter interaction cap fully removed from device 1300R-32 in accordance with one or more embodiments described herein.

[0079] FIG. 13R-33 illustrates a diagram of an example, non-limiting fully cross-sectioned and angled perspective view of smoking filtration device 1300R-33 with a threaded igniter interaction cap fully removed from device 1300R-33 in accordance with one or more embodiments described herein. [0080] FIG. 13R-34 illustrates a diagram of an example, non-limiting fully cross-sectioned and angled perspective view of smoking filtration device 1300R-34 with a threaded igniter interaction cap fully inserted into device 1300R-34 in accordance with one or more embodiments described herein.

[0081]

[0082] FIG. 13R-36 illustrates a diagram of an example, non-limiting fully cross-sectioned and angled perspective view of smoking filtration device 1300R-36 with a threaded igniter interaction cap fully inserted into device 1300R-36 and removal of detachable mouthpiece in accordance with one or more embodiments described herein.

[0083] FIG. 13R-37 illustrates a diagram of an example, non-limiting fully cross-sectioned and angled perspective view of smoking filtration device 1300R-37 with a valve cartridge assembly within the atrium in accordance with one or more embodiments described herein.

[0084] FIG. 13R-38 illustrates a diagram of an example, non-limiting cross-sectioned view of the front of smoking filtration device 1300R-38 during insertion into the heating tube in accordance with one or more embodiments described herein.

[0085] FIG. 13R-39 illustrates a diagram of an example, non-limiting cross-sectioned view of the front of smoking filtration device 1300R-39 while fully inserted into the heating tube in accordance with one or more embodiments described herein.

[0086] FIG. 13R-40 illustrates a diagram of an example, non-limiting side profile view of ignition system 1300R-40 with heating element in accordance with one or more embodiments described herein.

[0087] FIG. 13R-41 illustrates a diagram of an example, non-limiting cross-sectioned view of ignition system 1300R-41 with heating element that is an igniter interaction cap in accordance with one or more embodiments described herein.

[0088] FIG. 13R-42 illustrates a diagram of an example, non-limiting top view of the top of ignition system 1300R-42 with heating element that is an igniter interaction cap in accordance with one or more embodiments described herein. [0089] FIG. 13R-43 illustrates a diagram of an example, non-limiting cross-sectioned view of the front of smoking filtration device 1300R-43 with valve cartridge assembly within the atrium in accordance with one or more embodiments described herein.

[0090] FIG. 13R-44 illustrates a diagram of an example, non-limiting cross-sectioned, angled, view of smoking filtration device 1300R-44 with valve cartridge assembly within the atrium in accordance with one or more embodiments described herein.

[0091] FIG. 13R-52 illustrates a diagram of an example, non-limiting angled, internal view of smoking filtration device 1300R-52 with ignition system and removal of the detachable mouthpiece with smoking media item in accordance with one or more embodiments described herein.

[0092] FIG. 13R-53 illustrates a diagram of an example, non-limiting angled, internal view of smoking filtration device 1300R-53 with ignition system and partial insertion of the detachable mouthpiece with smoking media item in accordance with one or more embodiments described herein.

[0093] FIG. 13R-54 illustrates a diagram of an example, non-limiting angled, internal view of smoking filtration device 1300R-54 with ignition system and full insertion of the detachable mouthpiece with smoking media item in accordance with one or more embodiments described herein.

[0094] FIG. 14A illustrates a diagram of an example, non-limiting perspective view of electronics subframe component 1400 A without the battery in accordance with one or more embodiments described herein.

[0095] FIG. 14B illustrates a diagram of an example, non-limiting perspective view of electronics subframe component 1400B without the control PCB and with the inserted battery in accordance with one or more embodiments described herein.

[0096] FIG. 14C illustrates a diagram of an example, non -limiting perspective view of electronics subframe component 1400C with the UI plate in accordance with one or more embodiments described herein.

[0097] FIG. 14D illustrates a diagram of an example, non-limiting perspective view of electronics subframe component MOOD without the UI plate in accordance with one or more embodiments described herein.

[0098] FIG. 14E illustrates a diagram of an example, non-limiting right side view of electronics subframe component 1400E without the UI plate in accordance with one or more embodiments described herein. [0099] FIG. 14F illustrates a diagram of an example, non-limiting backside view of electronics subframe component 1400F in accordance with one or more embodiments described herein.

[00100] FIG. 14G illustrates a diagram of an example, non-limiting left side view of electronics subframe component 1400G in accordance with one or more embodiments described herein.

[00101] FIG. 14H illustrates a diagram of an example, non-limiting angled view of electronics subframe component 1400H in accordance with one or more embodiments described herein.

[00102] FIG. 15A illustrates a diagram of an example, non-limiting cross-sectioned, closeup internal view of smoking filtration device 1500A with the valve cartridge assembly inserted in the atrium in accordance with one or more embodiments described herein.

[00103] FIG. 15B illustrates a diagram of an example, non-limiting cross-sectioned view of smoking filtration device 1500B with the valve cartridge assembly and atrium subassembly removed in accordance with one or more embodiments described herein.

[00104] FIG. 15C illustrates a diagram of an example, non-limiting cross-sectioned view of smoking filtration device 1500C with the valve cartridge assembly removed from the atrium cavity in accordance with one or more embodiments described herein.

[00105] FIG. 15D illustrates a diagram of an example, non-limiting angled view of smoking filtration device 1500D in accordance with one or more embodiments described herein.

[00106] FIG. 15E illustrates a diagram of an example, non-limiting angled view of smoking filtration device 1500E with atrium and detachable mouthpiece removed in accordance with one or more embodiments described herein.

[00107] FIG. 15F illustrates a diagram of an example, non-limiting angled view of smoking filtration device 1500F with atrium and detachable mouthpiece removed in accordance with one or more embodiments described herein.

[00108] FIG. 15G illustrates a diagram of an example, non-limiting angled view of smoking filtration device 1500G with atrium, detachable mouthpiece, valve cartridge sub-assembly removed in accordance with one or more embodiments described herein.

[00109] FIG. 15H illustrates a diagram of an example, non-limiting cross-sectioned view of smoking filtration device 1500H that illustrates a hollowed fresh-air intake valve in an open position in accordance with one or more embodiments described herein. [00110] FIG. 151 illustrates a diagram of an example, non-limiting cross-sectioned view of smoking filtration device 15001 that illustrates all the valves in a closed position in accordance with one or more embodiments described herein.

[00111] FIG. 15J illustrates a diagram of an example, non-limiting cross-sectioned view of smoking filtration device 1500J that illustrates all the hollowed exhale valve in an open position in accordance with one or more embodiments described herein.

[00112] FIG. 15K illustrates a diagram of an example, non-limiting cross-sectioned view of smoking filtration device 1500K that illustrates all the hollowed inhale valve and hollowed fresh-air intake valve in an open position in accordance with one or more embodiments described herein.

[00113] FIG. 15P illustrates a diagram of an example, non-limiting angled, cross-sectioned view of smoking filtration device 1500P that illustrates all the valves in a closed position in accordance with one or more embodiments described herein.

[00114] FIG. 16A illustrates a diagram of an example, non-limiting exploded view of the filtration subsystem 1600A in accordance with one or more embodiments described herein.

[00115] FIG. 16B illustrates a diagram of an example, non -limiting left-side view of the filtration subsystem 1600B in accordance with one or more embodiments described herein.

[00116] FIG. 16C illustrates a diagram of an example, non -limiting angled frontside perspective view of the filtration subsystem 1600C in accordance with one or more embodiments described herein.

[00117] FIG. 16D illustrates a diagram of an example, non-limiting cross-sectioned frontside view of smoking filtration device 1600D and the arc lighting implementation in accordance with one or more embodiments described herein.

[00118] FIG. 16E illustrates a diagram of an example, non-limiting cross-sectioned frontside view of smoking filtration device 1600D and the arc lighting implementation with smoking media item in accordance with one or more embodiments described herein.

[00119] FIG. 16F illustrates a diagram of an example, non-limiting cross-sectioned angled perspective view of the frontside of smoking filtration device 1600D and the arc lighting implementation with smoking media item in accordance with one or more embodiments described herein.

[00120] FIG. 16G illustrates a diagram of an example, non-limiting cross-sectioned view of an inhale air pathway throughout smoking filtration device 1600G in accordance with one or more embodiments described herein. [00121] FIG. 16H illustrates a diagram of an example, non-limiting cross-sectioned view of an exhale air pathway throughout smoking filtration device 1600H in accordance with one or more embodiments described herein.

[00122] FIG. 161 illustrates a diagram of an example, non-limiting cross-sectioned view of a fresh-air pathway throughout smoking filtration device 16001 in accordance with one or more embodiments described herein.

[00123] FIG. 16J illustrates a diagram of an example, non-limiting top perspective view of a smoking filtration device 1600J including more than one user interface, sealed side panels of the unibody, atrium side panels, a hinged filter access plate, and other configurable components in accordance with one or more embodiments described herein.

[00124] FIG. 16K illustrates a diagram of an example, non-limiting bottom perspective view of a smoking filtration device 1600K including a hinged filter access plate, a removable igniter assembly, and a flip-up igniter interaction cap in accordance with one or more embodiments described herein.

[00125] FIG. 16L illustrates a flow diagram of an example device implemented method that facilitates an igniting of smoking media in accordance with one or more embodiments described herein. [00126] FIG. 16M illustrates a flow diagram of an example device implemented method of removing an ignition assembly from a filtration device in accordance with one or more embodiments described herein.

[00127] FIG. 16N illustrates a flow diagram of an example device implemented method of communication between a filtration device and a smart device in accordance with one or more embodiments described herein.

[00128] FIG. 160 illustrates a flow diagram of an example device implemented method of autoextinguishing a smoking media item in accordance with one or more embodiments described herein.

[00129] FIG. 16P illustrates a flow diagram of an example device implemented method of detecting volume of aerosol inhaled or exhaled in accordance with one or more embodiments described herein.

[00130] FIG. 16Q illustrates a flow diagram of an example device implemented method of logging smoke data onto a filter in accordance with one or more embodiments described herein.

[00131] FIG. 16R illustrates a flow diagram of an example device implemented method of autoextinguishing a smoking media item in accordance with one or more embodiments described herein. [00132] FIG. 16S illustrates a flow diagram of an example chart comparing unfiltered emissions as compared to emissions filtered via the filtration device in accordance with one or more embodiments described herein.

[00133] FIG. 17 is a schematic block diagram illustrating a suitable operating environment in accordance with various aspects and embodiments.

[00134] FIG. 18 is a schematic block diagram of a sample-computing environment in accordance with various aspects and embodiments.

DETAILED DESCRIPTION

[00135] The following detailed description is merely illustrative and is not intended to limit embodiments and/or application or uses of embodiments. Furthermore, there is no intention to be bound by any expressed or implied information presented in the preceding Background or Summary sections, or in the Detailed Description section. One or more embodiments are now described with reference to the drawings, wherein like referenced numerals are used to refer to like elements throughout. In the following description, for purposes of explanation, numerous specific details are set forth in order to provide a more thorough understanding of the one or more embodiments. It is evident, however, in various cases, that the one or more embodiments can be practiced without these specific details.

[00136] Aspects and advantages of the invention will be set forth in part in the following description, or may be obvious from the description, or may be learned through practice of the invention. Implementations may include one or a combination of any two or more of the aforementioned features. These and other aspects, features, implementations, and advantages, and combinations of them, can be expressed as methods, apparatus, systems, devices, components, computer program products, computer-implemented methods, computer-implemented systems, business methods, and means or steps for performing functions, or combinations of them. Other features, aspects, implementations, and advantages will become apparent from the description, the drawings, and the claims.

[00137] FIG. 1 illustrates a diagram of an example, right side view of a non-limiting smoking device 100 in accordance with one or more embodiments described herein.

[00138] In an aspect, device 100 can comprise detachable mouthpiece 102, atrium 104, exterior device cover panel 107, and device unibody 110. As such, device 100 can comprise detachable mouthpiece 102 configured as an interface for a user to draw smoke through upon an inhalation event and an interface to pass exhaled smoke through as well. Accordingly, mouthpiece assembly 102 can act as a multi-functional interface for smoke transport into (e.g., exhaled smoke) and out (e.g., inhaled smoke) of device 100. In a non-limiting embodiment, detachable mouthpiece 102 is configured to separate from a receiving portion of device 100 and enable to share device 100 with other users in the absence of changing a range of other component parts (e.g., atrium 104 or valve assembly). Instead, only detachable mouthpiece 102 needs to be removed such that another user can attach its own detachable mouthpiece 102 to device 100 thus creating a hygienic smoking experience. Furthermore, detachable mouthpiece 102 can be detached while the smoking media continues smoking or burning within device 100 without suffering from any smoke leakage from the device. Accordingly, the configuration of mouthpiece assembly 102 is capable of integration with the rest of the components of device 100 but also independent removal that allows access to an inner portion of device 100 for cleaning and easy replacement of various component parts.

[00139] In another aspect, detachable mouthpiece 102 can be configured to integrate with a nipple portion of atrium 104 (e.g., attach around the nipple portion of atrium 104). Furthermore, the nipple portion of atrium 104 can be configured with o-ring members that interface between atrium 104 and detachable mouthpiece 102 to create a tight seal to inhibit exhaled smoke leakage from around the mouthpiece as the smoke enters through the atrium 104 nipple and into the rest of the inner cavities of device 100. The detachable mouthpiece 102 is configured in a versatile manner such that detachable mouthpiece or the atrium 104 nipple portion can interface with the user's mouth or with another device as an adapter to connect device 100 to another smoking apparatus (e.g., pipe, water pipe, gravity waterpipe, vacuum pump, hookah pipe, hose, etc.).

[00140] In another aspect, device 100 can comprise atrium 104 configured as a detachable component configured to house various air/smoke flows within device 100. For instance, atrium 104 can allow for the smoking media to be inserted and removed by the user, and can also be detached to allow top access to the heating tube component of device 100 for cleaning. As such, the detachability and removability of atrium 104 allows for access to and cleaning of device locations exposed to residue and smoke byproducts therefore allowing the device to output a much more hygienic smoke product. [00141] Also, atrium 104 allows for the interchange of smoking media such that new smoking media may be inserted into and old smoking media can be removed from device 100. The insertion and removal process enables a seamless user experience, where the smoking media is twisted in a simple counter-clockwise rotation, and in some instances followed by a vertical pull, to remove the smoking media or a simple vertical push in and clockwise rotation of the smoking media to lock back into place. In non-limiting embodiments, atrium 104 can house a valve cartridge (e.g., assembly that regulates smoke flows within the device 100) configured for insertion or removal from an inner housing of atrium 104. The atrium 104 valve cartridge integration and segregation mechanism allows for the simple removal of the valve cartridge assembly rather than replacing individual valves and decoupling such components from other integrated component parts. Atrium 104 also comprises an atrium nipple configured to easily integrate with or allow for easy removal of detachable mouthpiece 102. Furthermore, atrium 104 also comprises an extrusion or cutout portion on the atrium 104 top surface adjacent to the nipple portion which acts as the fresh-air intake orifice that allows fresh air to enter device 100 and support circulation functions as well as ignition and burning functions.

[00142] In another aspect, atrium 104 also comprises the mounting features for the vented smoking media holder which makes an airtight seal with the heating tube to prevent any smoke leakage from device 100 during an inhale event, fresh-air intake event or exhale event. Furthermore, atrium 104 comprises a nipple element configured to be fitted with O-rings to ensure a tight seal between the detachable mouthpiece 102 that sits around the nipple of atrium 104. In another aspect, atrium 104 can be configured with a cavity structured to receive and/or interlock with a valve cartridge assembly. The valve cartridge assembly can be inserted or removed from the atrium 104 cavity via a lateral movement (e.g., left and right movement) of the cartridge. In another non-limiting embodiment, this cartridge can have a molded external feature to provide added grip for the user to perform lateral movements, and to cover the external orifice of the atrium cavity. Furthermore, in a non-limiting embodiment, grooves within the internal geometry of the cavity can enable the valve cartridge to sit snug and properly (by providing tactile feedback to the user) within the cavity portion.

[00143] In another aspect, atrium 104 can comprise a mounting surface for the vented smoking media holder which separates the fresh-air/exhale flow into one stream/orifice, and the inhale/smoking media holder into another orifice. Also, in a non-limiting embodiment, small atrium exterior cover panels can sit on either side of atrium 104 and seamlessly create structural conformity and uniformity of the exterior unibody 110 of device 100 such that device 100 appears with a uniform form and look of the device exterior cover panels. In some FIG.’s, unibody 110 is referenced more than once to illustrate the uniform and monolithic nature of the unibody structure.

[00144] Device 100 can further comprise exterior device cover panel 107 configured to conceal and encase internal components and electronic components of device 100 and/or act as an external heat insulator and/or dissipator by providing various levels of sealing to internal components of the device from water and dust. In an aspect, device cover panel 107 can provision a rounded structural form of device 100 and provide an efficacious and ergonomic hand grasp for comfort. Furthermore, the detachable nature of device cover panel 107 can allow for the components to be inserted into the device which makes it possible to test, debug and assure device quality of a fully functional device without having to attach all the exterior cosmetic components. Furthermore, device cover panel 107 can mount to the device unibody (e.g., chassis) of device 100. In a non-limiting embodiment, device cover panel 107 can be a single exterior device cover panel that wraps around the device 100 (like a taco), however in alternative non-limiting embodiments device 100 can act as exterior device cover panels on either side, separated the by the device unibody (e.g., device 100 chassis).

[00145] In another aspect, device 100 can employ device unibody 110 configured as a support structure for several other device 100 components. As such, device unibody 110 is configured as a significant structural element for device 100 and provisions a structural scaffold for the mounting of other device components. As such, the core structural role of unibody 110 is that of a device 100 chassis for several or all, in alternative embodiments, components and sub-assemblies can attach onto. Furthermore, device unibody 110 can be made to be very thin with extrusions in various regions to remove extra weight and dimension (for ergonomic comfort) from the device 100. In a non-limiting embodiment, unibody 110 can support the attachment of any one or more components such as a top tube receiver, electronics subframe, UI plate (s), exterior device panel(s), ignition block, filter access plate or other such components. Furthermore, in an embodiment, the ignition block can point to the chamfered edge of the device unibody 110 and in alternative embodiments, the chamfer edge can resemble a smooth curve instead of angular cut edge. In an aspect, screw 113 affixes exterior device panel 107 to unibody 110.

[00146] Turning now to FIG. 2, illustrated is a diagram of an example, back view of a nonlimiting smoking filtration device 200 (a different view of device 100) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00147] In an aspect, device 200 can comprise detachable mouthpiece 102, atrium 104, device unibody 110, filter access plate 106, charging/data connector cavity 114, and device exhaust cavity 116. Device 200 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, filter access plate 106 is configured as a touchpoint (e.g., for a user) that allows for the removal of the filter assembly. As such, filter access plate 106 eliminates a need for external tools to remove the filter component from the device 100 interior. This configuration provides access to a component part (e.g., filter) that needs frequent replacement and given the configuration, just the filter can be replaced and the remaining device components can stay intact for use. Furthermore, filter access plate 106 can be configured to align the filter with the other device components and therefore inhibit device leakage due to misalignment. Accordingly, filter access plate 106 can attach to or assist the filter shell. In a non-limiting embodiment, filter access plate 106 can attach to the filter shell itself. In alternative embodiments, filter access plate 106 can be configured as a hinged door attached to the device 100 itself and continue to align the filter ports within the device 100.

[00148] In another non-limiting embodiment, device 100 can employ charging/data connector cavity 114 configured to allow mate with a USB-C or in other embodiments other connector on the control PCB 404 unit for slot insertion into the device 100 unibody therefore provisioning a flush port that allows device 100 to charge its power and exchange data (e.g., receive or provision data) with networks, third party devices or other data sources. Furthermore, charging/data connector cavity 114 is accessible via the exterior surface or unibody surface of device 100 and therefore requires no removal of internal or external device components for charging access or data interchange processes. As such, charging/data connector cavity 114 is configured as an extrusion or cut out opening within the device unibody. In a non-limiting embodiment, charging/data connector cavity 114 is configured to mate with a USB-C data storage device or power charger but in alternative embodiments can be any of a range of power/data connection ports.

[00149] In another aspect, device 100 can comprise device exhaust cavity 116 configured to exhaust filtered smoke or air that passed the filter and traveled through the device fan to evacuate into the surrounding atmosphere. In an aspect, device exhaust cavity 116 is an open cavity devoid of backpressure that allows for the maintenance of a sufficient level of fan suction to prevent thermal energy of filtered air from heating up the electronic components of device 100. Therefore, the electronics of device 100 can function continuously and efficiently based on exhaust cavity 116. As such, exhaust cavity 116 is a cavity that allows for air passage of air that has passed through the fan/air-blower. In a non-limiting embodiment, the fan can vent air into the region of device 100 that houses electronics and such air exits device 100 through the exhaust cavity via the extrusion in the unibody. In additional or alternative non-limiting embodiments exhaust cavity 116 can be a duct directly between the fan and an outlet to the extrusion on the unibody, therefore isolating the airpath away from or bypassing the general electronics area.

[00150] Turning now to FIG. 3, illustrated is a diagram of an example, top view of a non-limiting smoking filtration device 300 (an alternative view of device 100 and 200) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00151] In a non-limiting embodiment, device 300 can comprise detachable mouthpiece 102, atrium 104, first LED indicator 310, second light emitting diode (LED) indicator, interaction button 312, device unibody 110, mouthpiece cavity 320, and fresh air intake orifice 926. Device 300 can include other components disclosed herein but not referenced or viewable in the illustration. In a non-limiting embodiment, device 100 can employ second LED indicator 308 configured to communicate a range of device status' such status, including but not limited to; on/off, battery charge, igniter on status, igniter off status, heating of smoking media, smoking media length, end of smoking media, active charging, filter life, filter missing, general error or other status' by varying the color, duration and pattern of second LED indicator 308. In an aspect, first LED indicator 310 is configured to communicate a number of device status' such as device 100 on/off, battery charge, igniter on, igniter off, whether smoking media is heated, identify a smoking media length, end of smoking media, active charging, filter life, filter missing, general error or other status' by varying the color, duration and pattern of the LED.

[00152] In an aspect, first LED indicator 310 and second LED indicator 308 independently or in combination provides the user a deep level of insight and visual aid into the active processes executed by device 100. As such, device 100 can generate current and relevant determinations corresponding to battery life, filter life, charge, and other such status’ of device 100. In another aspect, first LED indicator 310 and second LED indicator 308 can be mounted directly onto the UI PCB component of device 100. In additional or alternative non-limiting embodiments device 100 can comprise one LED or three or more LED's, or a display screen to display such information or act as a user interface to present data or status’. In another aspect, device 100 can comprise more than one UI PCB that can allow for the rendering of information at more than one location of device 100. For instance, one UI PCB can display the filter life information near the filter portion of device 100 and another UI PCB can display smoke media consumption information at a different location of device 100. In an aspect, the placement of more than one UI PCB at different locations of device 100 can allow for more information to be displayed in an instance without the user requirement to cycle through (e.g., via swipe of a touch screen) a single LED for relevant information Furthermore, the provisioning of more than one UI PCB can allow relevant information for viewing within a user line of sight when using a particular function. As an example, a topside located UI PCB can display a burn status as the user’s sight is focused at the topside of the device during consumption. As another example, a backside UI PCB can display a filter/battery status which is within a user line of sight as they attempt to charge or change the filter. [00153] In an aspect, device 300 can employ interaction button 312 configured to power on device 100 or power off device 100, provision a check battery status, provision a check filter status, power on the device igniter, power off the device igniter, power on the fan component, power off the fan component, and control other such functions based on initiation of various sequences of pressing and/or holding the interaction button 312. In another aspect, device 300 can control device 100 via communicative coupling with a circuit board component of device 300. As such, interaction button 312 can act as an untethered power switch or power source for device 300. In another aspect, interaction button 312 can be mounted directly on UI PCB surface. Furthermore, in an aspect, a power button cover can be positioned underneath the UI plate such that the button component itself is protected from external elements (e.g. dust, water, etc.) and/or potentially adverse impacts from overly forceful pressing. In a non-limiting embodiment, interaction button 312 can be one button. In addition or alternatively, non-limiting embodiments, interaction button 312 can be two or more buttons. Furthermore, other device embodiments can include switches, a capacitive touch screen, light sensor, or a number of other button technologies in lieu of or in addition to a button. In an embodiment, a button cover of interaction button 312 can be opaque, however in another embodiment it can be clear and emit LED illuminations to convey communicative information.

[00154] In another aspect, device 100 can employ device unibody 110 that is a main structural element of device 100 to which several device components mount. As such, unibody 110 can allow for the implementation of efficient and efficacious manufacturing of device 100 by requiring one core structure that other components and sub-assemblies can attach onto. In another aspect, device 100 can include mouthpiece cavity 320 configured as an air passageway that accommodates the movement of smoke in and out of device 100 via the valve cartridge which acts as a gatekeeper for passage of the various smoke and air streams. In an aspect, mouthpiece cavity 320 is a structural hollowed cavity formed within detachable mouthpiece 102 and extending further into device 100.

[00155] Turning now to FIG. 4 illustrates a diagram of an example, right side view of a nonlimiting smoking filtration device 400 (a different view and perspective of device 100, 200, and 300) and some internal components including the heating tube and filter cartridge revealed in the absence of a portion of the device casing in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00156] In a non-limiting embodiment, device 400 can include detachable mouthpiece 102, atrium 104, device unibody 110, control PCB 404, top heat sensor 408, heating tube 412, heat sensor bar 414, bottom heat sensor 416, ignition block top receiver 418, and ignition block core 420. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. Device 400 can include other components disclosed herein but not referenced or viewable in the illustration.

[00157] In an aspect, control PCB 404 can comprise a printed circuit board (PCB) with various structural layers and configured to provision electrical connections between various components of device 100 as well as control and support the electrical conductivity between components. In an aspect, control PCB 404 can implement device processes and generate determinations in connection with firmware. In an instance, control PCB 404 can implement voltage adjustments based on determinations of enhancing the efficacy of device 100 functioning. For instance, control PCB 404 can provision a lower voltage to the device 100 battery and supply a higher current to an igniter element of device 100. Furthermore, in an aspect, control PCB 404 can determine a relative temperature difference between thermistor components employed by device 100. Accordingly, control PCB 404 can initiate a process to extinguish the burning of a smoking media item based on turning off the fan component (e.g., ending a supply of voltage to the fan) and detecting temperature differences between thermistor components.

[00158] For instance, control PCB 404 can trigger the fan to turn off based on detection of a target temperature value or value corresponding to the temperature differentials between the thermistor components. The temperature value can represent the smoking media burning to a point close to the terminal end of the smoking media (e.g., filter). By cutting off voltage to the fan, control PCB 404 can choke the supply of air supplied to the smoking media by removing negative pressure from the fresh-air intake valve causing it to close and therefore extinguish the burning of the smoking media which depends on oxygen via air. In another aspect, control PCB 404 can comprise a charging circuit, a battery connector, a USB-C or other charging/data connector, thermistor lead connectors, voltage converter, UI PCB(s) connector(s), microcontroller (processor), fan/air-blower connector, MOSFET, buck-converter, NFC reader/writer, RFID reader/writer, bluetooth module, dynamic NFC tag module and /or switch mounted mechanically mounted to the control PCB 404. In an aspect, a switch of control PCB 404 can detect the insertion or removal of filter based on a sliding movement of the filter across a surface of control PCB 404 or whether a filter is absent (e.g., based on sensor detection mechanisms, such as a proximity sensor, hall-effect sensor, mechanical switch, NFC sensor, RFID sensor, or other sensor). In another aspect, control PCB 404 can provision communication instructions to UI PCB of device 100 to enable the provisioning of analytics, information, instructions, commands, and data for user consumption.

[00159] In a non-limiting embodiment, the MOSFET can manage power delivery from the battery to the igniter of device 100. Furthermore, the buck-converter can change the voltage (and subsequently, current) between the input and output points to deliver the optimal electrical conditions to any of a range of igniters. In another non-limiting embodiment, the dynamic NFC tag module can broadcast a variable URL link (e.g., link capable of changing) that allows a user device (e.g., smart phone) to access and communicate with device 100 to enable a range of interactive capabilities such as filter reordering or retrieving knowledge statistics about device 100 (e.g., lifetime smokes). In yet another non-limiting embodiment, a microcontroller can manage the boot up and operational processes for the device to function. Also, a bluetooth communication protocol can be employed by device 100 to communicate with and communicatively couple with (e.g., pair) applications or other smart devices such as standalone air filters. In another non-limiting embodiment, the thermistor lead connectors can enable the transfer of thermal data to the microcontroller in order to determine (e.g., pursuant to an auto-extinguishing algorithm) and output a temperature for the auto-extinguishing mechanism of device 100.

[00160] In another non-limiting embodiment, device 100 can employ other hardware elements such as processors, functional blocks, and so forth. This may include implementation in hardware as an application specific integrated circuit or other logic device formed using one or more semiconductors. The hardware elements are not limited by the materials from which they are formed or the processing mechanisms employed therein. For instance, processors may be comprised of semiconductor s) and/or transistors (e.g., electronic integrated circuits (IC’s). In such a context, processor-executable instructions may be electronically executable instructions. In other non-limiting embodiments, device 100 can employ operations or generate determinations using combinations or independent firmware, hardware, and/or software configurable to facilitate data exchanges with other devices and execute operational functions and determinations of device 100. As an example, firmware can drive hardware components of device 100 to generate signals and/or process messages used in maintaining device operations and controls. In other instances, firmware or combinations of firmware, hardware, and/or processors (or external such as a server to device 100 connectively coupled via a wireless network) of device 100 can implement algorithms, analytics processes, and/or queries to extract the information from data generated by device 100 and its respective components.

[00161] In additional or alternative implementations, control PCB 404 can be compact in size, the device can be user operated with one hand due to the absence and lack of necessity for other tethered electronics assemblies that would otherwise obstruct a user’s ability to hold the device with one hand. Furthermore, control PCB 404 is configured to enable reprogramming after the point of assembly, without the need for disassembly of device 100. In another aspect, control PCB 404 can allow for firmware upgrades, for instance, in accordance with servicing requirements (e.g., filter replacements, cartridge replacements and/or upgrades, etc.). In another aspect, control PCB 404 can be configured with Bluetooth communication capability for pairing with applications and/or modules to report device status and settings.

[00162] Furthermore, control PCB 404 can comprise an NFC transmitter to electronically couple with a mobile device (or other NFC enabled device), such as a tablet, smartphone, tablet or other mobile device, to render notification (e.g., replace the filter, reorder a filter, etc.) at a user interface of the mobile device. In another embodiment, control PCB 404 can comprise an RFID or NFC antenna capable of writing and reading to a filter RFID or NFC tag as a means of determining filter life based on an extrapolation of data. Furthermore, control PCB 404 can provision updated data to an RFID or NFC tag (e.g., regarding occurrence of an event that may impact filter life) after an occurrence of each consumption/smoking session has been completed. In another aspect, control PCB 404 can employ an airflow sensor to detect changes in filter exhaust airflow over time or to detect inhale/exhale strength and duration information. In another aspect, the air pressure sensor can detect a change in filter exhaust air pressure over time/use. In additional or alternative non-limiting embodiments, device 100 can employ sensors capable of measuring a range of device parameters and provisioning such sensor information to various destinations (e.g., control PCB 404, server devices external to device 100, data stores, etc.).

[00163] In another aspect, device 400 can employ top heat sensor 408 that can be a range of heat sensors such as a thermocouple, resistance temperature detector (RTD’s), thermistors, semiconductor based integrated circuits (IC’s), infrared sensors, change of state sensors, silicon diodes, and other such sensors. In a non-limiting embodiment top heat sensor 408 can detect thermal energy in the area between the non-heatable smoking media and the smoking media core. The smoking media can’t be viewed from the exterior of device 100, so top heat sensor 408 facilitates an extinguishing event that inhibits the smoking media from burning past a target length (e.g., such length can be preset or predetermined) and therefore prevent a user from tasting the unpreferred smoke associated with a burnt non-heating smoking media (e.g., cigarette filter). In another aspect, top heat sensor 408 can be positioned on the outside of a heating tube component of device 100 and allow conductive heat to transfer through the heating tube. As such, top heat sensor 408 does not need to be integrated within an interior wall of the heating tube which could present sealing and residue buildup issues. In addition or alternative non-limiting embodiments, top heat sensor 408 can be positioned within the heating tube component or integrated within a wall of the heating tube component. In another non-limiting embodiment, top heat sensor 408 can be positioned between a heat sensor bar and heating tube of device 400. In another non-limiting embodiment, the outer wall of the heating tube can include recessed grooves or a ledge configured to allow the heat sensors to slot, nest, clip, hang or key into position and then directly adhere (e.g., via a tape mechanism) to the tube itself, removing the need of additional heat sensor bar component and also reducing heat transfer time and increasing the responsiveness of the heat sensors.

[00164] In a non-limiting embodiment, top heat sensor 408 can be a thermistor, thermocouple, IR sensor or other heat sensing technologies. In other non-limiting embodiments, heat sensor system can employ two sensors (e.g., a top and bottom sensor). In other non-limiting embodiments, device 400 can employ three or more sensors to enhance the accuracy and detection capabilities of such sensors. Also, in an embodiment, the heat sensors can be placed inside the heating tube for a more responsive reading (no conductive heat transfer delay). In other non-limiting embodiments, the preset desired length of the smoking media detection can be changed (e.g., via execution of firmware modifications) to any of a range of lengths to accommodate various forms of smoking media, with varying non-heatable smoking media lengths, by changing the temperature differential threshold between the top and bottom heat sensor. For instance, the detection of a target temperature differential between a top heat sensor 408 and bottom heat sensor 416 can be different for different variations of smoking media (e.g., variations in length, width, bum factors, presence or absence of a filter, etc.) and such temperature differentials can be matched to each respective smoking media type such that device 400 and the firmware can customized detection and extinguishing operations for each media type. [00165] In another aspect, device 400 can employ heating tube 412 that contains the smoking media within a chamber of the tube portion and provides a captive environment for efficient ignition and burning of the smoking media. In an aspect, heating tube 412 is configured to house the smoking media and contain a significant portion of heat buildup within the device. Heating tube 412 can connect atrium 104 to the filter and forms an inner air chamber of the device that is hermetically sealed on a top end and bottom end to prevent leakage from the inner tube cavity to the external environment. Furthermore, heating tube 412 can be a uniform cylinder with an exposed opening top and bottom end (when separated from other removable device components) to allow for accessible openings to deep-clean heating tube 412 with the use of a pipe cleaner or other cleaning accessory. In an aspect, heating tube 412 can comprise a thin material configured to allow heat to conduct through the walls and allow device 400 heat sensors to detect a temperature of the smoking media through heating tube 412. In another aspect, heating tube 412 can mount to the top tube receiver and ignition block of device 400 to to create a sealed internal cavity/air-path or chamber within heating tube 412. In another aspect, heating tube 412 can comprise any one or more material such as stainless steel, aluminum, glass, ceramic, plastic or other such material. The heating tube 412 can be inserted into a top tube receiver portion of the ignition block. In another embodiment, heating tube 412 can be suaged/flared at either end to fit around the top tube portion of the ignition block and other components (instead of inside of such components). In other non-limiting embodiments, heating tube 412 can be inserted inside a top tube receiver portion of the ignition block. In another non-limiting embodiment, heating tube 412 can be surrounded and/or encapsulated with insulative material such as ceramic, alumina oxide, rubber, silicone or other insulative material to absorb or dissipate heat, making it more comfortable to the touch to hold, and protecting components from overheating.

[00166] In other embodiments, device 400 can include heat sensor bar 414 configured to allow the two (or more) heat sensors to be mounted against heating tube 412. In an aspect, heat sensor bar 414 can be a bar that removes any air space between the top heat sensor 408 and bottom heat sensor 416 and the heating tube that reduces any lag in heat detection due to lost transfer of heat. As such, heat sensor bar 414 can squeeze heat sensors against heating tube 412. In another aspect, heat sensor bar 414 can be a separate component that is mounted to heating tube 412. In additional or alternative non-limiting embodiments, heat sensor bar 414 can be a molded feature part of the combustion tube itself.

[00167] In another embodiment, device 400 can employ bottom heat sensor 416 that can be a range of heat sensors such as a thermocouple, resistance temperature detector (RTD’s), thermistors, semiconductor based integrated circuits (IC’s), infrared sensors, change of state sensors, silicon diodes, and other such sensors. In an aspect, bottom heat sensor 416 can detect thermal energy in the area between the smoking media core and smoking media tip. In a non-limiting embodiment bottom heat sensor 416 can detect thermal energy in the area between the non -heatable smoking media and the smoking media core. The smoking media can’t be viewed from the exterior of device 100, so bottom heat sensor 416 facilitates an extinguishing event that inhibits the smoking media from burning past a target length (e.g., such length can be preset or predetermined) and therefore prevent a user from tasting the unpreferred smoke associated with a burnt non-heating smoking media (e.g., cigarette filter). In another aspect, bottom heat sensor 416 can be positioned on the outside of a heating tube component of device 100 and allow conductive heat to transfer through the heating tube. As such, bottom heat sensor 416 does not need to be integrated within a wall of the heating tube which could present sealing and residue buildup issues. Additionally, or alternatively, in a non-limiting embodiment, bottom heat sensor 416 can be positioned within the heating tube component or integrated within a wall of heating tube 412. In another non-limiting embodiment, bottom heat sensor 416 can be positioned between a heat sensor bar 414 and heating tube 412 of device 400. In another non-limiting embodiment, device 400 can further comprise one or more screen or display (e.g., LED) to visually depict the burning status of the smoking media since it is not regularly visible from the outside of the device and/or render data, statistics or control various functionality of the device (e.g., via a touch screen interface).

[00168] In a non-limiting embodiment, bottom heat sensor 416 can be a thermistor, thermocouple, IR sensor or other heat sensing technologies. In other non-limiting embodiments, heat sensor system can employ two sensors (e.g., a top and bottom sensor). In other non-limiting embodiments, device 400 can employ three or more sensors to enhance the accuracy and detection capabilities of such sensors. Also, in an embodiment, the heat sensors can be placed inside the heating tube for a more responsive reading (no conductive heat transfer delay). In other non-limiting embodiments, the preset desired length of the smoking media detection can be changed (e.g., via execution of firmware modifications) to any of a range of lengths to accommodate various forms of smoking media, with varying non-heatable smoking media lengths, by changing the temperature differential between the top heat sensor 408 and bottom heat sensor 416.

[00169] In another aspect, device 400 can employ ignition block top receiver 418 that is a housing for a sub-assembly that allows for the heating element, igniter mounting, and igniter interaction cap to be removed from device 400 for replacement. Furthermore, ignition block top receiver 418 can connect the combustion tube, replaceable igniter assembly and filter inlet connector using at least a single part. In another aspect, ignition block top receiver 418 allows for replaceable igniter assembly to be removed for device maintenance. Furthermore, in an aspect, ignition block top receiver 418 allows for the hermetic sealing of a bottom end portion of heating tube 412 to prevent heat, air, and/or smoke leakage. Also, ignition block top receiver 418 can create a smooth flow of air into the filter cavity which maintains air pressure that could otherwise, in the absence of ignition block top receiver 418, create a pressure drop that would impact the fan/air-blower or a user’s exhaling.

[00170] In another aspect, ignition block top receiver 418 can be configured to implement an internalized ignition process which contains all smoke at the point of ignition. Furthermore, in a nonlimiting embodiment, ignition block top receiver 418 overcomes the need for having an external component for insertion into the heating tube to ignite the smoking media. Instead, ignition block top receiver 418 allows this capability to be integrated within the device 400. , In an aspect, ignition block top receiver 418 can mount to heating tube 412. Also, ignition block top receiver 418 can integrate with other device 400 components including, but not limited to, replaceable igniter sub-assembly, heating tube 412, filter inlet connector 932B (to be described in FIG. 7 below). Further, ignition block top receiver 418 can be any of a range of materials including stainless steel, aluminum, glass, ceramic, plastic, or other such materials. In a non-limiting embodiment, heating tube 412 can suage/flare around the ignition block top receiver 418 instead of nesting inside of a portion of ignition block top receiver 418. Ignition block top receiver 418 references the top receiving end of the ignition block which can house the internal or external O-rings that create a seal against heating tube 412.

[00171] In other non-limiting implementations, device 400 can employ ignition block core 420 configured to house a sub-assembly which integrates with and allows for the detachment, attachment, and/or replacement of heating element, igniter mounting, and igniter interaction cap replacement. Furthermore, ignition block core 420 can connect to the combustion tube portion of heating tube 412, replaceable igniter assembly and filter inlet connector 714 together thus acting as a central juncture for all such components.

[00172] In another aspect, ignition block core 420 can allow for a replaceable igniter assembly to be removed for device maintenance. Furthermore, in a non-limiting embodiment, ignition block top receiver 418 can create a hermetic seal with the bottom end of heating tube 412 to prevent leakage of air, smoke, and/or heat. Also, ignition block core 420 can create a smooth flow of air into the filter cavity that maintains a pressure level thereby preventing an occurrence of a pressure drop that would otherwise negatively impact the fan/air-blower or the user exhaling ability. In an aspect, ignition block core 420 can enable the implementation of an internalized ignition process which contains all smoke at the point of ignition and prevents the need for having an external that inserts into the heating tube to ignite the smoking media. Furthermore, ignition block core 420 can connect to replaceable igniter sub-assembly, heating tube 412, filter inlet connector 714. In another aspect, ignition block core 420 can comprise a material that is stainless steel, aluminum, glass, ceramic, plastic, or other such material. In an aspect, ignition block core 420 can reference the core of the ignition block, which can contain the heating element and the leak path extrusion into the filter inlet connector, as well as the bottom extrusion for the replaceable igniter sub-assembly.

[00173] Turning now to FIG. 5, illustrated is a diagram of an example, left side view of a nonlimiting smoking filtration device 500 (an alternative view of device 100, 200, 300, and 400) and some internal components including the fan, filter cartridge and heating chamber tube revealed in the absence of a portion of the device casing in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00174] In a non-limiting embodiment, device 500 can include detachable mouthpiece 102, atrium 104, device unibody 110, heating tube 412, heat sensor bar 414, ignition block top receiver 418, ignition block core 420, top tube receiver 422, and fan/air-blower 502. Device 500 can include other components disclosed herein but not referenced or viewable in the illustration.

[00175] In an aspect, device 500 can employ top tube receiver 422 that is a holding structure that encases the top portion of heating tube 412. In an aspect, top tube receiver 422 is configured to fix heating tube 412 in place and create a hermetic seal between atrium 104, heating tube 412, and top tube receiver 422. In another aspect, top tube receiver 422 can enable an alignment between heating tube 412 and other device 500 components by holding heating tube 412 in place. In another aspect, a smooth surface is created between atrium 104 and a vented holder to create a hermetic seal. In an aspect, top tube receiver 422 can be mounted on top of heating tube 412 and to device unibody 110. In a nonlimiting embodiment, top tube receiver 422 can be an independent component however in another embodiment top tube receiver 422 can be molded into the top of the heating tube to allow for the creation of a single component rather than integrated parts.

[00176] In another aspect, device 500 can employ fan/air blower 502 that is a fan component configured to generate negative pressure within device 500. The negative pressure can force open the fresh-air intake valve and allow for the intake of fresh-air into the system to maintain the burning of the smoking media. The negative pressure can also facilitate the evacuation of smoke exhaled back into device 500, as well as to evacuate the aerosol produced from the smoking media tip. In another aspect, fan/air blower 502 enables the igniting of the smoking media and enables continued burning of the smoking media by forcing a constant supply of air to travel through the burn chamber. The fan/air blower 502 also improves the user experience dramatically and creates the feel of a traditional smoking experience. Also, the negative pressure created by the fan helps alleviate some of the back pressure the user experiences as they blow their smoke into the device and through the filter membranes. In some non-limiting embodiments, fan/air blower 502 can be mounted to the electronics subframe and connect to the control PCB 404. Furthermore, fan/air blower 502 can also be any of a range of a fan, air-blower, piezoelectric pump, vacuum pump, or other such air moving technologies.

[00177] Turning now to FIG. 6, illustrated is a diagram of an example, right side view of a nonlimiting smoking filtration device 600 (an interior view of device 100 and other devices disclosed herein) and several internal components revealed within the device casing in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00178] In a non-limiting embodiment, device 600 can include detachable mouthpiece 102, atrium 104, heating tube 412, bottom heat sensor 416, fan/air-blower 502, mouthpiece cavity 320, heating element 610 (non -limiting tooth structure embodiment), and adsorptive filter section 612 (e.g., granulated activated carbon (GAC) or any of a range of adsorptive filter media). Device 600 can include other components disclosed herein but not referenced or viewable in the illustration.

[00179] In an aspect, device 600 can employ heating element 610 that in a non-limiting embodiment can comprise a tooth shaped structural component. In an aspect, heating element 610 can comprise a high resistance metal configured to conduct heat, contact the smoking media at the smoking media tip epicenter, and ignite the smoking media tip. In a non-limiting embodiment, heating element 610 can directly contact the smoking media tip or embed within the tip which allows for a shorter time to ignite the smoking media item. As such, device 600 can recreate a customary smoking experience with respect to the speed in which ignition can occur. In another aspect, the geometry of heating element 610 as a tooth shaped protruding structure can allow for an efficacious contact with the smoking media tip. [00180] For instance, heating element 610 can burrow in between the active smoking ingredients (e.g., tobacco, plant matter, etc.) and penetrate the smoking media tip to ensure the occurrence of ignition each instance heating element conducts heat. Furthermore, the nature of ignition is accurate, precise, and enables an even light from the center of the smoking media item that radiates outward as compared to indirect contact. In a non-limiting embodiment, heating element 610 can be mounted to the igniter interaction plate. Furthermore, in another non-limiting embodiment, heating element 610 can be configured as an arch (e.g., shape resembling a curved-W) configured to ignite the smoking media at smoking media tip epicenter and/or the smoking media tip perimeter. For instance, the protruding portion of the arch is elevated to contact the tip of smoking media item and the wing portions of the arch structure are configured to contact the perimeter portions of the circumference of the end of a smoking media item. As such, the heating element 610 can be an arch type structure that allows for contact to be made with smoking media items of a range of shapes and sizes. For instance, a wider girth smoking media item can contact the side wing portions of the arch such that the perimeter of the smoking media item is ignited. In another instance, typical shaped smoking media item can be inserted in the heating tube 412 and where the end of the smoking media item contacts the arch portion of the arch heating element 610 to allow for ignition of the tip of the smoking media item. In another aspect, the winged portions can also allow for some tolerance for ignition in the event the smoking media is slightly misaligned off-center, allowing a corner of the smoking media tip to contact the heating element (e.g., wing portion(s)) for ignition.

[00181] In yet another aspect, device 600 can employ adsorptive filter section 612 of the filter component of device 600. The adsorptive filter section 612 is configured to adsorb the majority of the volatile organic compounds that may be present in the smoke that passes through the filter. For instance, the smoke may comprise carbonyls, ammonia, volatile organic compounds and other gaseous chemicals that are released from the burning smoking media tip as well as the smoke exhaled into the device 600. As such, adsorptive filter section 612 can filter out those harmful materials through an adsorption process. Furthermore, adsorptive filter section 612 can remove the majority of all odors from the smoke via the adsorption mechanism. In a non-limiting embodiment, adsorptive filter section 612 can be positioned between the high efficiency particulate air (HEP A) media (e.g., or any other of a range of absorptive filtration media) separating fabric and/or a carbon fabric positioned within the filter shell. For instance, in a non-limiting embodiment the carbon fabric can employ a granular activated carbon (GAC), however, in other embodiments other gas deactivating materials can be utilized including HEP A, HEPA separating fabric, carbon fabric, filter shell cup 936A and filter shell lid 936B materials. [00182] FIG. 7 illustrates a diagram of an example, right side view of a non-limiting smoking filtration device 700 (a different view and perspective of devices 100-600) and several internal components revealed within the device casing in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00183] In a non-limiting embodiment, device 700 can include detachable mouthpiece 102, mouthpiece cavity 320, heating element 610, adsorptive filter section 612, inhale valve seat 702, exhale valve seat 704, fresh-air intake valve seat 706, battery 708, filter detent 710, filter inlet 968B, filter inlet connector 932B, igniter fixture component 716, igniter mounting 718, igniter interaction plate 720B, smoking media 722, heating tube 412, silicone gasket fin 726 A, silicone gasket fin 726B, double label 728A, double label 728B, fresh-air intake Device 700 can include other components disclosed herein but not referenced or viewable in the illustration.

[00184] In an aspect, device 700 can employ inhale valve seat 702 that is a mounting surface configured to receive an inhale valve such that the inhale valve is locked in place via inhale valve seat 702. In an aspect, an inhale valve can be pulled through an opening in inhale valve seat 702. Accordingly, inhale valve seat 702 combined with an inhale valve form an open/shut mechanism to allow and disallow air to flow through the device 700. In an aspect, inhale valve seat 702 is configured to ensure the creation of an air-tight seal on the valve and create a unidirectional flow for inhale. In another instance, the valve and inhale valve seat 702 can be positioned (via an insertion mechanism such as a lock or clip) within the internal cavity of atrium 104. In another non-limiting embodiment, a valve seat is depicted as a discrete component, however in the final embodiment, it will be a molded component part of the replaceable valve cartridge assembly.

[00185] In yet another aspect, device 700 can employ exhale valve seat 704 that is a mounting surface configured to receive an exhale valve such that the exhale valve is locked in place via exhale valve seat 706. For instance, exhale valve can be circumscribed by an opening within exhale valve seat 706. In an aspect, an inhale valve can be pulled through an opening in exhale valve seat 704. Accordingly, exhale valve seat 704 combined with an exhale valve form an open/shut mechanism to allow and disallow air to flow through the device 700. In an aspect, exhale valve seat 704 is configured to ensure the creation of an air-tight seal on the valve and create a unidirectional flow for inhale. In another instance, the exhale valve and exhale valve seat 704 can be positioned (via an insertion mechanism such as a lock or clip) within the internal cavity of atrium 104. In another non-limiting embodiment, an exhale valve seat 704 is depicted as a discrete component however in the final embodiment, it will be a molded component part of the replaceable valve cartridge assembly. In a nonlimiting embodiment, exhale valve seat 704 can be a discrete component portion of device 700. In other non-limiting embodiments, exhale valve seat 704 can be a molded component part of a replaceable valve cartridge assembly.

[00186] In a non-limiting embodiment, device 700 can also employ fresh-air intake valve seat 706 that is a mounting surface configured to receive a fresh air intake valve such that the valve is locked in place via fresh-air intake valve seat 706. For instance, fresh-air intake valve can be circumscribed by an opening within fresh-air intake valve seat 706 and ensures an air-tight seal between the valve and seat when in closed position. In an aspect, an fresh-air intake valve can be pulled through an opening in fresh-air intake valve seat 706. Accordingly, fresh-air intake valve seat 706 combined with an exhale valve form an open/shut mechanism to allow and disallow air to flow through the device 700. In an aspect, fresh-air intake valve seat 706 is configured to ensure the creation of an air-tight seal on the valve and create a unidirectional flow for fresh-air to pass through the device. In another instance, the fresh-air intake valve and fresh-air intake valve seat 706 can be positioned (via an insertion mechanism such as a lock or clip) within the internal cavity of atrium 104. In another non-limiting embodiment, an fresh-air intake valve seat 706 is depicted as a discrete component however in the final embodiment, it will be a molded component part of the replaceable valve cartridge assembly. In a non-limiting embodiment, fresh-air intake valve seat 706 can be a discrete component portion of device 700. In other non-limiting embodiments, fresh-air intake valve seat 706 can be a molded component part of a replaceable valve cartridge assembly that can be inserted and removed (or replaced with a new cartridge) from the device 700.

[00187] In another aspect, device 700 can include battery 708 configured to deliver power to device 700 and its system components. In an aspect, battery 708 can comprise an internalized and miniaturized component part of device 700 that is configured for removal or reinsertion. Furthermore, in a non-limiting embodiment, battery 708 can include an external tethered electronics system and in various embodiments battery 708 can be mounted to the electronics subframe. In a non-limiting instance, battery 708 can have a range of discharge capacities, amperes of electric charge, and electric current delivery capabilities. In a non-limiting embodiment, battery 708 can include a high discharge capacity, up to 50 amperes of electric charge, and is capable of delivering the necessary current to quickly heat the heating element. In a non-limiting embodiment, battery 708 can include a discharge capacity of between 5-10 amperes.

[00188] In another aspect, device 700 can include filter detent 710 configured to employ a small spring-loaded plunger configured to interact with a filter detent groove on the filter access plate to lock the filter in place and provide tactile feedback to the user when the filter is fully inserted. For instance, a user can feel the vibration or snap force from the insertion of the filter to know it is fully inserted. In an aspect, filter detent 710 is configured to prevent the filter from becoming dislodged and smoke from leaking out of device 700 (e.g., via a breach point in the filter). Furthermore, filter detent 710 allows a user to know a filter is correctly inserted by enabling the tactile feedback referenced above. In a nonlimiting embodiment, filter detent 710 can be mounted to the electronics subframe and can interact with filter access plate groove. In another aspect, a spring-loaded detent or similar mechanism can be implemented on the atrium 104 to provide tactile feedback (e.g., to a user) to indicate that the atrium 104 has been properly rotated and inserted to achieve a closed position.

[00189] Furthermore, device 700 can employ filter inlet 968B configured to act as a point of entry for smoke to enter the filter. In another aspect, filter inlet 968B can act as an interface surface for the filter. For instance, filter inlet 968B can allow the filter to be inserted and removed easily from device 700, while making a hermetic seal every time it is inserted. In a non-limiting embodiment, filter inlet 968B can be embedded into the filter shell. In another embodiment, a filter inlet connector 714 can be configured for insertion within filter inlet 968B upon connection between the component portions. In other non-limiting embodiments, filter inlet 968B can integrate into the filter inlet connector 714 via a plugging mechanism to create a stronger interconnection and seal between the filter component and internal components of device 700. In this aspect, the filter inlet 968B makes a radial seal with the outside of the filter inlet connector 932B. In another non-limiting embodiment, the filter inlet 968B can create a face seal with the rim of the filter inlet connector 932B, which requires less force for filter insertion (e.g., lower push force) and filter removal (pull force to dislodge the filter) thereby enabling an enhanced user experience.

[00190] In yet another aspect, device 700 can employ filter inlet connector 714 that is a connection portion configured to create a bridge between the ignition block and the filter inlet 968A. In an aspect, filter inlet connector 714 can be responsible for creating a path for smoke and ash to pass through. For instance, smoke and ash can pass from the heating tube cavity 412 and through the ignition block through the filter inlet connector 714 and into the filter cavity for filtration of harmful elements in the smoke and ash. In another aspect, filter inlet connector 714 can act as a bridge piece that protects the high temperature of the ignition block from melting the material (plastic) of the filter shell. The filter inlet connector 714 can contain O-rings on one or both side openings to create a hermetic seal with the ignition block and the filter shell respectively. In a non-limiting embodiment, filter inlet connector 714 can be mounted to the ignition block. In another non-limiting embodiment, filter inlet connector 714 can be molded into the ignition block itself.

[00191] In another embodiment, device 700 can include igniter fixture component 716 that can affix the igniter interaction plate 720B to the igniter mounting 718. In an aspect, igniter fixture component 716 can secure the heating element 610 and igniter mounting 718 in place and prevent such components from loosely falling out of the device 700 interior upon igniter interaction plate 720B (and the replaceable igniter assembly) removal from the ignition block. In a non-limiting embodiment, igniter fixture component 716 can be a screw that threads the igniter fixture component 716, heating element 610 and igniter mounting 718 elements together. In other non -limiting embodiments, igniter fixture component 716 can be any of a heat stake, ultrasonic weld, or other connecting component. In another embodiment, igniter interaction plate 720B can contain an embedded hinged thumb-screw mechanism or other such cap removal mechanism that provides better leverage to rotate the igniter subassembly out of its locked position, removing the need to have any visible knurling.

[00192] In an aspect, igniter mounting 718 can be a mounting surface that enables the heating element 610 to join to the igniter interaction plate 720B. For instance, igniter mounting 718 can provide a solid mount surface for heating element 610 and creates a resistance force that prevents bending or movement when heating element 610 pushes up against/into the smoking media. In another instance, igniter mounting 718 also enables consistent electrical contact between the ignition element terminals and device contact pins which allow for power delivery. In another aspect, igniter mounting 718 can attach to the igniter fixture component and the igniter interaction plate 720B such that it is positioned within the ignition block. In non-limiting embodiments, igniter mounting 718 can be comprised of any one or more materials such as stainless steel, ceramic, glass or other chemically inert and high temperature materials. In a non-limiting embodiment, igniter fixture component 716 can be unthreaded for the removal of interaction cap, however in other non-limiting embodiments, igniter interaction plate 720B can unthread from the ignition block 420. In another non-limiting embodiment, another interlocking feature set in lieu of threading can require less rotation and reduce a required thickness of the ignition block/igniter subassembly due to the removal of the circumferential threading.

[00193] In another non-limiting embodiment, device 700 can employ igniter interaction plate 720B. The igniter interaction plate 720B is a structure that provides a user touchpoint to remove the heating element 610 and igniter mounting 718 (sub-assembly) from ignition block 420. Furthermore, igniter interaction plate 720B can allow access to the bottom of heating tube 412 and the internal cavity of the ignition block 420. As such, removal of igniter interaction plate 720B allows for access to the internal cavity of ignition block 420 for cleaning and replacing components if necessary. In an aspect, igniter interaction plate 720B can attach to igniter fixture component 716 and heating element 610. Furthermore, igniter interaction plate 720B lives within ignition block 420 and completes the bottom left corner (in this view) of the unibody 406.

[00194] In yet another aspect, smoking media 722 is disclosed within device 700. In an aspect, smoking media 722 can be a variety of smokable items. The smoking media 722 is the medium (e.g., paper rolled cigarette or other plant matter, etc.) for stimulus delivery to the user, comprised of the smoking media core, smoking media tip and non-heatable smoking media (e.g., cigarette filter). In an aspect, smoking media 722 can include a wide variety of smoking material, media shapes and media lengths for insertion into device 700 in order for user consumption. In an aspect, smoking media 722 can attach to the silicone gasket which contacts the non-heatable smoking media end stop in the vented holder. In another aspect, smoking media 722 can be wrapped in paper, in a cylindrical or conical shape, or into a glass accessory which allows smoking media to be loaded directly into device 700 without need for paper.

[00195] In another aspect, device 700 can include silicone gasket fin 726 configured to create an airtight seal against smoking media 722. In another aspect, silicone gasket fin 726 creates an airtight fit which prevents air from leaking around the non-heatable (e.g., cigarette filter, rolled cigarette filter, conical glass filter, cylindrical glass filter, cylindrical ceramic filter, conical ceramic filter, cylindrical metallic filter, conical metallic filter, etc.) smoking media and diluting the concentration of the smoking media 722 inhale aerosol. In another aspect, silicone gasket fin 726 can custom fit and encircle a range of non-heatable smoking media diameters and is configured to grip such smoking media 722 in a manner that prevents smoking media 722 from falling out of the vented holder. In an aspect, the silicone material can operate to deform/flex rather than compress, which could squeeze the non-heatable smoking media and restrict inhale aerosol airflow. Accordingly, the silicone material stretches to fit a range of smoking media diameters and retracts to hold the smoking media 722 in place firmly. Furthermore, in an embodiment, silicone gasket fin 726 can be positioned between the vented holder and atrium 104. In an aspect, silicone gasket fin 726 is illustrated as a cross sectional view of the circular shape of silicone gasket fin 726 configured to circumscribe a smoking end (e.g., filter) of smoking media 722.

[00196] In another aspect, device 700 can employ inhale valve 729A that is a valve configured to regulate the flow of aerosol (e.g., smoke drawn from the smoking media 722) within the inhale pathway by flexing open upon application of sufficient pressure to inhale valve 729A that cracks the inhale valve 729A open. In an aspect, inhale valve 729A, prevents the inhalation of exhaled or burning smoking media tip smoke (side stream). In another aspect, inhale valve 729A is configured to open based on application of a low cracking pressure based on forces generated from the lowest inhale pressure. For instance, in a non-limiting embodiment, the inhale valve 729A can be configured to open based on application of pressure as low as .01 psi. In an aspect, inhale valve 729A can be configured to mount onto inhale valve seat 702. Furthermore, in a non-limiting embodiment inhale valve 729A can be an umbrella valve with a stem that is pulled through inhale valve seat 702. In other non-limiting embodiments, the umbrella valve can be comprised of a hollow core (circle cutout in the middle) which is fixed to inhale valve seat 702 via a retaining feature on the valve seat itself that pushes inhale valve 702 into a sealed position at rest.

[00197] In another aspect, device 700 can employ exhale valve 729B that is a valve configured to regulate the flow of aerosol (e.g., smoke exhaled into mouthpiece cavity 320) within the exhale pathway by flexing open upon application of sufficient pressure exhale valve 729B that cracks the exhale valve 729A open. In an aspect, exhale valve 729B, prevents the exhalation from passing through smoking media 722. In another aspect, exhale valve 729B is configured to open based on application of a low cracking pressure based on forces generated from the lowest exhale pressure applied by a user’s exhaling into mouthpiece cavity 320. For instance, in a non-limiting embodiment, the exhale valve 729B can be configured to open based on application of pressure as low as .01 psi. In an aspect, exhale valve 729B can be configured to mount onto exhale valve seat 704. In a non-limiting embodiment, exhale valve 729B is depicted as an umbrella valve with a stem that is pulled through exhale valve seat 704. In other non-limiting embodiments, exhale valve 729B can be an umbrella valve with a hollow core (circle cutout in the middle) which is fixed to exhale valve seat 704 via a retaining feature on exhale valve seat 704 that pushed exhale valve 729B into a sealed position at rest. [00198] Another aspect of device 700 can include fresh-air intake valve 729C that is a valve configured to regulate the flow of fresh air within the fresh-air intake pathway upon fresh-air intake valve 729C flexing open based on application of sufficient pressure to crack fresh-air intake valve 729C open. In an aspect, fresh-air intake valve 729C, prevents the exhalation from passing through smoking media 722. In another aspect, fresh-air intake valve 729C is configured to open based on application of a low cracking pressure that allows fan/air blower 502 to pull air into the device 700 system while smoking media 722 continues to burn. In another aspect, fresh-air intake valve 729C is configured to open based on application of a low cracking pressure based on forces generated from the lowest exhale pressure applied by a user’s exhaling into mouthpiece cavity 320. Furthermore, such low cracking pressure consumes a low amount of power due to the low fan pulling force required to crack open freshair intake valve 729C. In an aspect, fresh-air intake valve 729C can be configured to mount onto freshair intake valve seat 706. Furthermore, fresh-air intake valve 729C can receive fresh air directly from fresh-air intake orifice 926. In a non-limiting embodiment, fresh-air intake valve 729C is an umbrella valve with a stem that is pulled through fresh-air intake valve seat 706. In another non-limiting embodiment, fresh-air intake valve 729C is a single shuttle valve (also referred to as OR valve) or double-sided umbrella valve with a hollow core (circle cutout in the middle) that is fixed to fresh-air intake valve seat 706 via a retaining feature on the fresh-air intake valve seat 706 itself that pushes freshair intake valve 729C into a sealed position.

[00199] In another aspect, device 700 can employ fresh-air intake orifice 926 that is an opening configured to allow for fresh air to be pulled into device 700 from the surrounding atmosphere via negative pressure generated by fan/air-blower 502. As such, fresh-air intake orifice 926 can enable the supply of necessary reactants (e.g., air) is supplied into heating tube 412 to ensure smoking media 722 is heated or combusted properly in various non-limiting embodiments. In an aspect, fresh-air intake orifice 926 can provide continuous sufficient oxygen levels to heating tube 412 to prevent smoking media 722 from self-extingui shing due to the lack of oxygen. Accordingly, in embodiments that employ combustion to smoking media 722, smoking media 722 only needs to be ignited once and fan/air blower 502 can continue to draw in fresh air to maintain the combustion. In a non-limiting embodiment, freshair intake orifice 926 can be an opening embedded within atrium 104 and open into the external environment from device 700.

[00200] In another aspect, device 700 can include inhale orifice 927 that is an opening in device 700 configured to allow for inhale aerosol (e.g., smoke) to enter into atrium 104 and mouthpiece cavity 320, through inhale valve 729A. In an aspect, inhale orifice 927 can be located in close proximity of detachable mouthpiece 102 and allow for the inhale aerosol to maintain an authentic and unaltered taste of smoking media 722. In another aspect, inhale orifice 927 can be an extrusion (cut out) on the vented holder. Furthermore, in an aspect, inhale orifice 927 can have a slightly smaller diameter than silicone gasket 726 or the holding feature of the vented holder, which creates the non-heatable smoking media 722 end stop so that the user can receive tactile feedback upon a complete insertion of smoking media 722 into silicone gasket 726.

[00201] Turning now to FIG. 8, illustrated is a diagram of an example, bottom view of a nonlimiting smoking filtration device 800 (a different view and perspective of devices 100-700) and several internal components revealed within the device casing in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00202] In a non-limiting embodiment, device 800 can include filter access plate 106, filter access plate relief 804, device unibody 110, and igniter fixture component 716. Device 800 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, device 800 can include device unibody 110 that references the bottom surface of the unibody. In another aspect, device 800 can include filter access plate relief 804 that is an extrusion or cutout in the unibody 110 configured to create a gap that can be gripped (e.g., by a finger) to move filter access plate 106 into an open position to remove/replace the filter from device 800. Furthermore, in an aspect, filter access plate relief 804 can allow for ergonomic removal of the filter and eliminate the need for a pry tool to remove the filter. In another aspect, filter access plate relief 804 can be configured as a keying feature that indicates that the filter is inserted in a correct orientation. For instance, filter access plate relief 804 may not close if the filter is oriented in the incorrect direction. Furthermore, filter access plate relief 804 can be an extrusion (cut out) on unibody 110.

[00203] In another aspect, device 800 can employ igniter fixture component 716 configured to fix igniter interaction plate 720B to igniter mounting 718. Furthermore, in an aspect, igniter fixture component 716 can hold heating element 610 and igniter mounting 718 together and prevent heating element 610 and igniter mounting 718 from loosely falling out of device 800 upon removal of igniter interaction plate 720B (and the replaceable igniter assembly) from ignition block core 420. In a nonlimiting embodiment, igniter fixture component 716 can be configured as a screw that threads several elements (e.g., heating element 610, igniter mounting 718, etc.) together within device 800. In other non-limiting embodiments, igniter fixture component 716 can be any of a heat stake, ultrasonic weld, or other component adjoining mechanism. In another embodiment, igniter interaction plate 720B can instead of a plate be configured as an igniter interaction cap comprising an embedded hinged thumbscrew or other such mechanism configured to provide better leverage to rotate the igniter sub-assembly out of its locked position, removing the need to have any visible knurling shown.

[00204] Turning now to FIG. 9A, illustrated is a diagram of an example, left side view of a nonlimiting smoking filtration device 900 A (a different view and perspective of devices 100-800) and several internal components revealed within the device casing including a fan, filter cartridge, ignition assembly, heating chamber tube, and mouthpiece assembly in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00205] In a non-limiting embodiment, device 900 A can include detachable mouthpiece 102, atrium 104, fan/air blower 502, electronics subframe 904, filter shell 906, igniter power cable B 1366B, and ignition block core 420. Device 900A can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, device 900 can employ electronics subframe 904 that is a structural mounting point that allows for the mounting of the majority of the electronic components in device 900A (except the heat sensors in a non-limiting embodiment) and also incorporates device exhaust orifice 916 (molded within electronics subframe 904). In another aspect, electronics subframe 904 can allow for electronics to be assembled and tested outside of the device 900A prior to installation onto electronics subframe 904 to optimize the manufacturing process (e.g., enable a faster and cost-effective manufacturing process to take effect). In another aspect, electronics subframe 904 can act be configured as a mounting surface for a user interface (UI) PCB, control PCB 404, battery 708, haptic feedback motor 934 (e.g., rumbier in other non-limiting embodiments), fan/air blower 502, and/or filter detent 710.

[00206] In a non-limiting embodiment, electronics subframe 904 can act as a mount for other components such as sensors, transmitters, antennas, receivers, gyroscopic sensors, and other such components. In another aspect, electronics subframe 904 can include an exhaust cavity or orifice to allow for the outward exhaust (that is pushed from fan/air blower 502) of smoke that is indiscriminately blown into electronics subframe 904 to flow into the external environment of device 900A via exhaust cavity/orifice which is molded into electronics subframe 904 itself. In a future embodiment, this exhaust cavity can be a specially molded feature of electronics subframe 904 which vents the exhausted air through a pathway that is separated from the electronics components mounted to electronics subframe 904. In another non-limiting embodiment, electronics subframe 904 can be split into two or more component parts to simplify the molding and assembly process of the subframe during manufacturing. [00207] In another aspect, device 900A can employ filter shell 906 that is a subassembly containing several mechanical housing components and the internal filtration media. Furthermore, filter shell 906 can seal and direct the internal air flow within device 900A. In another aspect, filter shell 906 can connect the inner cavity of the heating tube 412 to the inlet portion of fan/air blower 502 to create a closed pathway that allows fresh air to flow throughout device 900 A. For instance, filter shell 906 can allow fresh-air to enter device 900A via the fresh-air intake orifice and the negative air pressure generated by the fan/air-blower 502 to enable the burning of smoke from the smoking end (e.g., filter) of smoking media and sidestream smoke from the end (e.g., lit portion) and exhaled smoke to flow out of heating tube 412 cavity into the filter.

[00208] In an aspect, filter shell 906 can contain the filtration materials that eliminate unwanted odors and visible fumes that would otherwise be emitted from the smoke or during the process of smoking. In another aspect, filter shell 906 can comprise a hermetic seal that keeps smoke, odors and other smoke byproducts within filter shell 906. Furthermore, filter shell 906 can prevent any leakage and ensures proper flow of exhaled smoke through the filter. In another aspect, filter shell 906 can comprise a removable shell that allows for filter replacement when the filter has reached the end of life. For instance, a user can remove filter shell 906 and replace with the filter within filter shell 906 to maintain optimal filtration capabilities.

[00209] In another aspect, filter shell 906 can comprise a filter lid used to seal the filter and a filter shell cup 936 A configured to contain the filter portion. In yet another aspect, filter shell 906 can include a HEPA filter, a first separating fabric (e.g., potentially containing absorptive or adsorptive properties, a carbon fabric, etc.), a granulated activated carbon, and a second separating fabric (e.g., containing absorptive or adsorptive properties, a carbon fabric, etc.) or separating fabric within the device. These filtration elements perform various filtering techniques and capabilities that eliminate odors, particulates and unwanted materials from smoke as it exits device 900A. In a non-limiting embodiment, device 900A can comprise filter access plate 106 that is mounted to the filter. Furthermore, filter access plate 106 can contain the filter detent 710 groove and is removed in a horizontal direction simultaneously with the filter upon replacement of such filter. In other embodiments, filter access plate 106 mount to the unibody 110 (e.g., chassis) of device 900A which exposes the filter, which could remove in a vertical direction and contain a filter detent 710 groove feature in the filter shell 906. [00210] In yet another aspect, device 900A can comprise igniter power cable B 1366B configured to supply a current to ignition block electrical contact pin-B. As such, igniter power cable B 1366B can allow for heating element 610 to receive power via ignition block power electrical contact pin-B to heat or combust smoking media 722. In another aspect, igniter power cable B 1366B can connect control PCB 404 to power terminal B and ignition block electrical contact pin-B, which igniter power cable B 1366B has had the voltage stepped down to increase the current for quick heating, to the ignition block electrical contact pin-B. In another aspect, the igniter power cable can receive non-stepped down voltage directly from the battery itself, due to to the presence of a component that could employ a pulse width modulation (PWM), an electrical signal modulation mechanism, while still being able to quickly heat the heating element. As such, the igniter power cable allows for the proper functioning of the device ignition mechanism even in the absence of other power delivery components. Furthermore, in an aspect, the igniter power cable and contact pin configuration can allow for the removal or reinsertion of the heating element and/or igniter subassembly while forming a secure electrical connection between internal components of the device. In yet another aspect, the igniter power cable and pin configuration can hold in place device components and prevent misalignment between the igniter interaction plate 720B and the ignition block bottom receiver 1222.

[00211] FIG. 9C illustrates a diagram of an example, perspective view that includes a right side, top side, and back side view of a non-limiting smoking filtration device 900C (a different view and perspective of devices 100-900B) and several internal components revealed within the device casing in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00212] In a non-limiting embodiment, device 900C can include detachable mouthpiece 102, atrium 104, filter access plate 106, heat sensor bar 414, ignition block bottom receiver 901, ignition block top receiver 418, interaction button 312, heating tube 412, filter shell 906, haptic feedback motor 934, electronics subframe exhaust orifice 916, control PCB 404, LED indicator 1 light-pipe 922, LED indicator 2 light-pipe 924, and fresh-air intake orifice 926. Device 900C can include other components disclosed herein but not referenced or viewable in the illustration. In a non-limiting embodiment, ignition block bottom receiver 901 is inset into the ignition block bottom receiver. In other non-limiting embodiments, ignition block bottom receiver 901 is threaded and configured as an interaction plate that itself can screw onto the ignition block.

[00213] Turning now to FIG. 9E, illustrated is a diagram of an example, perspective view that includes a right side view, front view, and bottom view of a non-limiting smoking filtration device 900E (a different view and perspective of devices 100-900D) and several internal components revealed within the device casing in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00214] In a non-limiting embodiment, device 900E can include detachable mouthpiece 102, atrium 104, heat sensor bar 414, ignition block bottom receiver 901, ignition block top receiver 418, , heating tube 412, filter shell 906, and control PCB 404. Device 900E can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect device 900E can include filter outlet connector 932A that is a connection juncture configured as a bridge component between fan/air blower 502 and a filter outlet portion of a filter. In an aspect, filter outlet connector 932A can create an airtight duct from the filter outlet to fan/air blower 502 to ensure the maximum amount of suction is being pulled through the filtration media. Furthermore, filter outlet connector 932A can enable the filter outlet, in any position, to connect to fan/air blower 502 inlet, in any position. As such, changes to the air blower type and filter outlet direction are easily managed by creating the correct ducting via the filter outlet connector. In another aspect, filter outlet connector 932A can act as the completion portion of the internal, pressurized air pathway. Furthermore, in an embodiment, filter outlet connector 932A can be mounted to unibody 110. In another aspect, filter outlet connector 932A can hold the fan/air blower gasket against the fan air blower 502 and interface with the filter outlet. In a non-limiting embodiment, filter outlet connector 932A can be a discrete component that is positioned on the same plane as the filter inlet connector. In another non-limiting embodiment, filter outlet connector 932A can be molded into the electronics subframe 904. Furthermore, filter outlet connector 932A can be positioned at a 90-degree perpendicular angle to filter inlet connector 714. In another non-limiting embodiment, filter outlet connector rim can make a face seal with the filter outlet rather than a radial seal, to reduce the force needed to engage the seal when inserting the filter thereby improving the user experience.

[00215] Turning now to FIG. 9F illustrates a diagram of an example, perspective view of a nonlimiting components of smoking filtration device 900F (a different view and perspective of devices 100- 900E) including the mouthpiece assembly, heating chamber tube, and filter receiving portion in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00216] In a non-limiting embodiment, device 900F can include detachable mouthpiece 102, atrium 104, heat sensor bar 414, ignition block bottom receiver 901, ignition block top receiver 418, heating tube 412, filter shell 906, haptic feedback motor 934, electronic subframe exhaust orifice 916, filter outlet connector 932A, and filter inlet connector 714. Device 900F can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, the filter inlet connector 714 can allow for the entire system to be sufficiently pressurized to ensure an efficient flow of air/smoke throughout the device.

[00217] Turning now to FIG. 9G, illustrated is a diagram of an example, cross sectional perspective view of smoking filtration device 900G (a different view and perspective of devices 100- 900F) including the mouthpiece assembly, heating chamber tube, filter assembly, and thermistor bar in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00218] In a non-limiting embodiment, device 900G can include atrium 104, heat sensor bar 414, ignition block top receiver 418, heating tube 412, filter shell cup 936 A, adsorptive filter section 612, filter inlet connector leak-path 940, ignition block leak-path 942, bottom heat sensor 416, top heat sensor 408, top heat sensor cabling 948, and battery 708. Device 900G can include other components disclosed herein but not referenced or viewable in the illustration.

[00219] In an aspect, device 900G can comprise filter shell cup 936A that is a portion of the main housing for all the filtration media of device 900G. In an aspect, filter shell cup 936 A can include female connection mechanisms configured to mate (e.g., inter-connect) with male connection mechanisms on the filter shell lid 936B. As such filter shell cup 936A and the filter shell lid 936B can create a hermetic seal with one another upon insertion of the filter. In an aspect, filter shell cup 936 A can include a raised section on one end of the filter shell cup 936A that allows Granulated Activated Carbon (GAC) to be filled to the top of the filter shell cup 936A (e.g., GAC can be poured into the filter shell cup 936A) without spilling out of the sides. Furthermore, the GAC can be compressed within the filter shell cup 936 A to maximize the carbon volume available to interface with smoke needing filter and therefore removing odor from the smoke over the lifespan of the GAC. Furthermore, the containment portion of filter shell cup 936 A and the internal structure of filter shell cup 936 A contain the GAC granules and prevent the carbon granules from falling out. In another non-limiting embodiment, the GAC granules can be replaced with a monolithic carbon component (e.g., carbon briquette) to simplify assembly during manufacturing.

[00220] In another aspect, filter shell cup 936 A can include structural frame separating walls that separate a carbon cloth fabric configured to prevent the GAC from pouring into the HEPA or exhaust plenum. Furthermore, the structural frame of filter shell cup 936A can maximize the airflow through the filter and prevent the entrance of back pressure into the cavity portion of filter shell cup 936 A. For instance, in a non-limiting embodiment the device structural configuration can facilitate the generation of an airflow of up to 100 liters per minute. In another aspect, female connection mechanisms of filter shell cup 936A can interface tightly with the male connection mechanisms on the filter shell lid 936B to ensure there is no leakage anywhere in filter shell cup 936A. In yet another aspect, filter shell cup 936A can comprise air plenums which help spread the diffusion of fumes across the entire surface of the HEPA/carbon (or extra separating) fabric for longer filtration life, and more laminar flow which lowers backpressure. In another aspect, filter shell cup 936 A can connect to the filter inlet and outlet connectors and adhere to the filter shell lid 936B. Also, in an aspect, filter shell cup 936A can contain an embedded RFID or NFC within the filter shell cup 936 A to track the filter lifespan and ensure authenticity of the filter. For instance, the information associated with filter life can be stored on the RFID or NFC. In another aspect, filter shell cup 936 A Can also contain an imprinted QR code configured to store filter authenticity information, lifespan information, and other relevant information. Furthermore, the QR-code can enable a one-click reorder when scanned with a web-enabled camera device. In another non-limiting embodiment, the RFID, NFC, and QR features can be implemented on the filter shell lid 936B rather than the cup. In another aspect, filter shell cup 936A can be made out of a eco-friendly biodegradable plastic to reduce waste and environmental impact

[00221] In another embodiment, device 900G can employ filter inlet connector leak-path 940 configured as an air pathway that connects the ignition block leak-path to the filter inlet plenum. Furthermore, in an aspect, filter inlet connector leak-path 940 can enable fumes to pass through the ignition block leak-path and into the filtration cavity of the filter. Furthermore, filter inlet connector leak-path 940 can be configured as an extrusion within the filter inlet connector. In another non-limiting embodiment, filter inlet connector leak-path 940 can be part of the ignition block assembly (pre-molded) to create a single piece that encompasses a combined leak-path. In another aspect, the filter inlet connector 714 can allow for the entire system to be sufficiently pressurized to ensure an efficient flow of air/smoke throughout the device. [00222] In yet another aspect, device 900G can employ ignition block leak path 942 configured as an air-pathway that connects the air-pathway connecting the heating tube. In another embodiment where the filter inlet connector is part of the ignition block assembly (pre-molded), the filter inlet connector leak-path and the ignition block leak-path can be one combined leak-path 412 cavity (inner cavity) to the filter inlet connector leak-path 940. In another aspect, ignition block leak path 942 can enable fumes to pass around the smoking media tip and enter the filtration cavity. In a non-limiting embodiment, ignition block leak path 942 is an extrusion (cut-out) within the ignition block that is perpendicular to the ignition block top and bottom receiver portions. In another aspect, device 900G can employ top heat sensor cabling 948 that is a cable that supplies power from control PCB 404 to heat sensors and transfers thermal read-out data to the microprocessor coupled to control PCB 404. In another aspect, top heat sensor cabling 948 can include a heat sensor array to detect when the hottest point of the smoking media core and tip has reached the non-heatable smoking media. At such time, the heat sensor array triggers a command to control PCB to power off fan/air blower 502. As such, the power off of fan/air blower 502 can prevent fresh air from entering the system via a closure of fresh-air intake valve 728C (due to the shut down of the opening force from the fan/air blower 502), which smothers the smoking media and prevents the non-heatable smoking media from burning. In another aspect, top heat sensor cabling 948 can connect heat sensors to control PCB 404. Furthermore, in a non-limiting embodiment, the top heat or bottom heat sensors could transmit and receive power wirelessly.

[00223] Turning now to FIG. 9H, illustrated is a diagram of an example, non-limiting heating chamber tube and component 900H (an isolated view of a component of devices 100-900H) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00224] In a non-limiting embodiment, component 900H can include heat sensor bar 414, heating tube 412, bottom heat sensor 416, top heat sensor 408, top heat sensor cabling 948, non-heatable smoking media 1362C. Component 900H can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, component 900H can include non-heatable smoking media 1362C that is a smoking item (e.g., hand rolled cigarette, hand rolled herbal ingredient, manufactured cigarette, etc.). In an aspect, non-heatable smoking media 1362C can include a portion of the smoking media that is made of a non-consumable or non-ingestible porous material that allows aerosol to travel through the internal pathways of the smoking media. The non-heatable smoking media 1362C can also be flame retardant and thus maintains a temperature that allows the silicone gasket fin 726 to keep its form and thus prevents the silicone gasket from reaching exceedingly high temperatures. In an aspect, non-heatable smoking media 1362C can be a portion of commercially available smoking medias that can include soft material (e.g., cellulose, paper, cotton, etc.) configured to provide the silicone gasket a springy surface to seal around. In another aspect, the non-heatable portion of the smoking media (e.g., filter of a cigarette, rolled cigarette filter, conical glass filter, cylindrical glass filter, cylindrical ceramic filter, conical ceramic filter, cylindrical metallic filter, conical metallic filter, etc.) can comprise a non-springy material (such as glass, ceramic, wood, etc.) which relies on the flexibility of the silicone itself to conform around such a material.

[00225] Furthermore, the soft material and formed seal between the smoking media and silicone gasket fin 726 can ensure that only smoke drawn from the smoking media passes through the inhalation pathway. Thus, the seal also prevents air/fumes from passing into the inhalation pathway given the effective seal formed around the circumference of the non-heatable smoking media 1362C and the tight hold over the smoking media item by the silicone gasket fin 726 during the process of inhaling. In another aspect, the separation between the non-heatable smoking media 1362C and the smoking media core can be a detectable metric that corresponds to the length of the smoking media. Furthermore, such length can be detected by the heat sensors and such heat sensors can communicate with PCB control 404 to trigger the shut off of fan/air blower 502.

[00226] In another aspect, a portion of smoking media 722, interfaces with silicone gasket fin 726 and such interface can interfere with smoke media end-stop (e.g., a lip portion of the device that resists further insertion of the smoking media) on the vented holder (or the silicone gasket fin 726) and such resistance or interference can signal that the smoking media 722 is properly inserted. In an aspect, non- heatable smoking media 1362C may be a portion of a ready-made smoking media item or a hand rolled smoking media item or other variations of smoking media.

[00227] Turning now FIG. 10A, illustrated is a diagram of an example, non-limiting perspective view of smoking filtration device 1000 A (a different view and perspective of devices 100-900H) including a detachable atrium subassembly and media insertion mechanism in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In a non-limiting embodiment, device 1000 A can include detachable mouthpiece 102, atrium, 104, exterior device cover panel 107, LED indicator 2, LED indicator 1, interaction button 312, fresh-air intake orifice 926, vented holder 956, electronics subframe 918, silicone gasket 728, and top tube receiver 422. In an aspect, detachable atrium subassembly can comprise detachable mouthpiece 102, atrium 104, fresh-air intake orifice 926, vented holder 956, and silicone gasket 728 and other component parts of such subassembly configured to integrate with the device body. Device 1000A can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 10A illustrates the capability of removal of detachable mouthpiece 102 and such piece is interchangeable and replaceable. The ability for detachable mouthpiece 102 to be removed allows for easy access to the cavity of heating tube 412, ability to clean the mouthpiece and heating tube (e.g., with a pipe cleaner, cotton swab, or other cleaning tool), ease of insertion of smoking media into the vented holder 956 and silicone gasket fin 726 and interlocking nature of detachable mouthpiece 102. In another aspect, the igniter subassembly and atrium subassembly can be removed to expose a hole spanning across the entire device which allows for an unobstructed and unimpeded cleaning of heating tube 412 without risk of damage to other component parts of the device from the cleaning tools.

[00228] Turning now to FIG. 10B, illustrated is a diagram of an example, non-limiting perspective view of smoking filtration device 1000B (a different view and perspective of devices 100- 1000A) including a detachable atrium subassembly and media insertion mechanism with inserted smoking media in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00229] In a non-limiting embodiment, device 1000B can include detachable mouthpiece 102, atrium 104, exterior device cover panel 107, LED indicator 2, LED indicator 1, interaction button 312, fresh-air intake orifice 926, vented holder 956, electronics subframe 918, top tube receiver 422, silicone gasket 728, and smoking media core 1362B. Device 1000B can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking media core 1362B is a portion of the smoking media item that contains the smoking media (e.g., ingredient such as tobacco, herb, etc.) that is yet to be ignited or heated for consumption. Furthermore, as consumption occurs (e.g., actual smoking of the cigarette), smoking media core 1362B is converted to a byproduct material (such as ash, tar, etc.) and the smoking media tip consumes more of the smoking media core 1362B. In another aspect, smoking media core 1362B can be part of the smoking media which is the area between the non-heatable smoking media and the smoking media tip. In an aspect, FIG. 10B, illustrates the insertion of detachable mouthpiece 102 that is gripping the smoking media item.

[00230] Turning now to FIG. 10C, illustrated is a diagram of an example, non-limiting perspective view of smoking filtration device 1000C (a different view and perspective of devices 100- 1000B) including a detachable atrium subassembly and media insertion mechanism with inserted smoking media in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00231] In a non-limiting embodiment, device 1000C can include detachable mouthpiece 102, atrium 104, fresh-air intake orifice 926, vented holder 956, electronics subframe 918, silicone gasket 728, and smoking media core 1362B. Device 1000C can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 10C, illustrates the insertion of detachable mouthpiece 102 that is gripping the smoking media item and lowered into the cavity of heating tube 412.

[00232] Turning now to FIG. 11 A, illustrated is a diagram of an example, non-limiting perspective view of smoking filtration device 1100 A (a different view and perspective of devices 100- 1000C) including a detachable filtration assembly and filter insertion mechanism in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00233] In a non-limiting embodiment, device 1100 A can include detachable mouthpiece 102, atrium 104, filter access plate 106, LED indicator 1 310, LED indicator 2 308, interaction button 312, fresh-air intake orifice 926, device exhaust cavity 116, filter inlet 968B, filter outlet 968 A, filter detent groove 970, device unibody 972, and filter shell cup 936A. Device 1100A can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 11 A, illustrates the removal of filter shell cup 974 from device unibody 110. In an aspect, filter shell cup 936A is configured to house all of the filter’s filtration media (e.g., HEP A, separating fabric, GAC, carbon fabric).

[00234] Furthermore, filter shell cup 936 A can compartmentalize the respective filtration media such that in a non-limiting embodiment the majority of the volume within filter shell cup 936 A can be allocated for the filter inlet and exhaust plenums, and a raised portion of filter shell cup 936A can contain the GAC material. Accordingly, the segments of filter shell cup 936 A can maximize carbon volume, contain the carbon and prevent the carbon from pouring over the edge of filter shell cup 936 A, and allow the carbon to be compacted to create maximum space efficiency within filter shell cup 936 A. [00235] In another aspect, filter shell cup 936 A can contain air plenums which help spread the diffusion of fumes across the entire surface of the HEPA/GAC (or extra separating) fabric for longer filtration life and further create a laminar flow of smoke within the filter which inhibits back pressure from entering the filter. In another aspect, filter shell cup 936A can contain a raised section for GAC which prevents it from pouring out and allows it to be compacted for maximum space and filtration efficiency. In yet another aspect, filter shell cup 936A can contain female sealing mechanisms configured to form a seal between filter shell lid 936B, the filter assembly, and filtration media adhered to the filter assembly. Furthermore, in a non-limiting embodiment, the female sealing mechanisms can be adhered to the filter shell lid 936B.

[00236] In an aspect, filter inlet 968B is an interfacing surface configured to create an airtight seal against filter inlet connector 932B. Furthermore, filter inlet 968B can allow air, smoke, and/or fumes to enter the filtration cavity. Also, filter inlet 968B can allow the filter to separate from the remaining components of device 1100 A such that the filter is a detachable sub-assembly capable of replacement. In another aspect, filter inlet 968B can be circular therefore creating an opening that allows for a sliding seal against filter inlet connector 932B. In yet another embodiment, filter inlet 968B can be part of the filter shell, specifically the filter shell cup 936 A. In other non-limiting embodiments, filter inlet connector 932B can fit around filter inlet 968B rather than inside of it. In another embodiment, the filter inlet 968B makes a face seal with the rim of the filter inlet connector, which requires considerably less force, making it easier for the user to insert and remove the filter.

[00237] In another aspect, device 1100A can include filter outlet 968 A that is a bridge component between the ignition block and filter inlet 968B. In an aspect, filter outlet 968 A can be a part of a pathway for smoke and ash to travel via the heating tube 412 cavity and into the filter cavity. The filter outlet 968A as a bridge piece can protect the high temperature of the ignition block from melting the material (e.g., plastic) of the filter shell. Furthermore, filter outlet 968A can include O-rings on either side to form a hermetic seal with the ignition block and the filter shell. In another aspect, the rim of filter outlet connector 932A can make a face seal with the filter outlet 968A rather than a radial seal, to reduce the force needed to engage the seal when inserting the filter, improving the user experience.

Also, in a non-limiting embodiment, filter outlet 968A can be mounted to the ignition block. In another non-limiting embodiment, filter outlet 968A can be a feature molded into the ignition block itself. [00238] Turning now to FIG. 1 IB illustrates a diagram of an example, non-limiting perspective view of smoking filtration device 1100B (a different view and perspective of devices 100-1100 A) including a detachable filtration assembly and filter insertion mechanism in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. [00239] In a non-limiting embodiment, device 1100B can include detachable mouthpiece 102, atrium 104, filter access plate 106, heat sensor bar 414, ignition block top receiver 418, heating tube 412, fresh-air intake orifice 926, filter outlet connector 932A, filter inlet connector 932B, device exhaust cavity 116, filter inlet 968B, filter outlet 968 A, device unibody 110, and filter shell cup 936 A. Device 1100B can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 1 IB illustrates the ability of filter shell cup 936A to fit within a filter cavity of device unibody 110. Furthermore, FIG. 1 IB illustrates the interconnection points between filter inlet 968B, filter outlet connector 932A and filter inlet connector 932B and filter inlet 968A.

[00240] Turning now to FIG. 1 ID, illustrated is a diagram of an example, non-limiting perspective view of smoking filtration device HOOD (a different view and perspective of devices 100- 1100C) including a detachable filtration assembly inserted within device HOOD and viewable absent an outer device casing in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In a non-limiting embodiment, device HOOD can include detachable mouthpiece 102, atrium 104, filter access plate 106, device exhaust cavity 114, heat sensor bar 414, heating tube 412, charging/data connector cavity 114, device exhaust cavity 116, device unibody 110, and filter shell cup 936A. Device HOOD can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 1 ID illustrates the filter component completely inserted within device HOOD. Furthermore, filter access plate 106 sits flush with the remainder of device unibody 110 while fully inserted.

[00241] Turning now to FIG. 1 IE, illustrated is a diagram of an example, non-limiting perspective view of smoking filtration device 1100E (a different view and perspective of devices 100- 1100D) including a detachable filtration assembly inserted within device 1100E and viewable with the outer device casing in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00242] In a non-limiting embodiment, device 1100E can include detachable mouthpiece 102, atrium 104, filter access plate 106, device exhaust cavity 116, LED indicator 2 308, LED indicator 1 310, interaction button 312, charging/data connector cavity 114, filter access plate 106, and exterior device cover panel 107. Device 1100E can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 1 ID illustrates the filter component completely inserted within device HOOD. Furthermore, filter access plate 106 sits flush with the remainder of device unibody 110 and exterior device cover panel 107 while fully inserted.

[00243] Turning now to FIG. 12 A, illustrated is a diagram of an example, non-limiting top view of smoking filtration device 1200 A including an open burn chamber portion of device 1200 A (a different view and perspective of devices 100-1100E) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00244] In a non-limiting embodiment, device 1200 A can include LED indicator 2 308, LED indicator 1 310, interaction button 312, electronic subframe fixture 1202, ignition block bottom receiver 901, heating tube cavity 1206, and heating tube 412. Device 1200A can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, device 1200A can employ electronic subframe fixture 1202 configured to secure electronics subframe 918 to the top tube receiver of heating tube 412 and device unibody 110. In an aspect, electronics subframe fixture 1202 can provide a rigid mounting surface for the electronics subframe 918. This mounting surface facilitates an efficient manufacturing installation of electronics subframe 918.

[00245] In another aspect, device 1200A comprises heating tube cavity 1206 configured to create airspace around the smoking media. In an aspect, the air space allows the exhaled smoke to pass around the smoking media, fresh air to pass around the smoking media tip, and for the smoking media tip smoke (e.g., sidestream smoke) to evacuate from underneath the smoking media tip into a desired pathway via filter inlet-connector leak-path 940. Furthermore, in an aspect, heating tube cavity 1206 can create airspace around the smoking media allowing the smoke to pass around the smoking media.

Furthermore, fresh air can pass around the smoking media and into the smoking media tip while sidestream smoke can be evacuated from underneath the smoking media tip.

[00246] In an aspect, heating tube cavity 1206 can allow fresh air to pass around the smoking media and into the smoking media tip thus allowing the smoking media to sustain its burning and prevent self-extingui shing of the smoking media. In yet another aspect, heating tube cavity 1206 can allow smoke to pass around the smoking media and into the filtration cavity. Also, in an aspect, heating tube cavity 1206 can allow exhaled smoke to pass around the smoking media and into the filtration cavity. In a non-limiting embodiment, heating tube cavity 1206 can be a hollow cavity of the heating tube. [00247] Turning now to FIG. 12B, illustrated is a diagram of an example, non-limiting bottom view of smoking filtration device 1200B (a different view and perspective of devices 100- 1200 A) including an entry point into the ignition assembly via the detachable ignition plate of device 1200B in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00248] In a non-limiting embodiment, device 1200B can include filter detent 710, heating tube cavity 1206, ignition block power terminal A 1212A, ignition block power terminal B 1212B, heating tube cavity 1206, ignition block bottom receiver 901, and electronics subframe 918. Device 1200B can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, ignition block power terminal A 1212A and ignition block power terminal B 1212B are the female receiver portions of the contact pin A located on the igniter interaction cap 720 (ignition plate) that provide power to the heating element 610. In another aspect, ignition block power terminal B 1212B and ignition block power terminal A 1212A can enable the removability of igniter interaction cap 720 (or ignition plate in other non-limiting embodiments) from device 1200B via an external tool (e.g., screwdriver).

[00249] As such, removing the igniter interaction cap 720 can allow for the servicing of the ignition block and heating tube cavity 1206 from the bottom receiver end. This allows for a greater longevity of the device as compared to other devices that require disposing the entire device and purchasing a new device if a technical problem arises given that such devices do not include interchangeable components. In another aspect, ignition block power terminal B 1212B and ignition block power terminal A 1212A can allow the power to be supplied for the electronics to be internalized within the device. In an aspect, the ignition block power terminal is a component situated within the ignition block via an extrusion. Furthermore, igniter power cable B 1366B and igniter power cable A are connected to control PCB 404 and soldered (or crimped, or otherwise attached) to ignition block power terminal B 1212B and ignition block power terminal A 1212A. In a non-limiting embodiment, contact pins which fit inside of the ignition block power terminals are mounted on the igniter interaction cap 720 (e.g., or ignition plate in other non-limiting embodiments). In another non-limiting embodiment, excess heating element material can act as the contact pins themselves.

[00250] FIG. 12C illustrates a diagram of an example, non -limiting perspective view of smoking filtration device 1200C (a different view and perspective of devices 100-1200B) including an open burn chamber portion of device 1200 A in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00251] In a non-limiting embodiment, device 1200C can include LED indicator 2 308, LED indicator 1 310, interaction button 312, electronic subframe 1202, heating tube portion 1218, igniter fixture component port 1220, ignition block bottom receiver 1222, and top tube receiver 422. Device 1200C can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, igniter fixture component port 1220 is configured to allow the igniter fixture component to thread through the igniter interaction cap 720 and the igniter mounting 718 to hold those components and the heating element together. In another aspect, igniter fixture component port 1220 is configured to allow igniter interaction cap 720 to be removed via a tool such that the heating element can be accessed and/or removed. In an aspect, igniter fixture component port 1220 can be an extrusion (cutout) of the ignition block (e.g., bottom receiver end).

[00252] Device 1200C can also employ ignition block bottom receiver 1222 that can allow for insertion of the ignition interaction plate into the ignition block 420 as well as to connect to the ignition block power terminal A 1212A and ignition block power terminal B 1212B. In another aspect, ignition block bottom receiver 1222 can allow for the removal of ignition interaction plate and heating element 610 to remove. The removal of such components (e.g., heating tube, heating element 610, etc.) can allow for component cleaning or replacement which improves the cleanability of the heating tube and ensures a longer lifespan of device 1200C. In another aspect, device 1200C can be part of the ignition block and nest into the bottom corner of device unibody 110. In a non-limiting embodiment, ignition block bottom receiver 1222 is the exposed opening at the bottom of device 1200C where the igniter interaction cap and igniter mounting is removed.

[00253] In an aspect, heating tube portion 1218 can house the smoking media, manage the majority of the heat buildup in the device, connect the atrium 104 to the filter and form the inner air cavity of device 1200C, and hermetically seal on either end to prevent leakage from the tube. In an aspect, heating tube portion 1218 can mount to the top tube receiver and the ignition block to create a sealed internal cavity/air-path. In FIG. 12C, heating tube portion 1218 references the internal wall of the heating tube 412 which contacts the exhaled sidestream smoke, ashes, and other materials that cause residue to build up. As such, the ability to access, via the top the bottom surface of the heating tube, the heating tube 412 for cleaning allows for the long-lasting nature of device 1200C. [00254] Turning now to FIG. 13 A, illustrated is a diagram of an example, non-limiting left side view of ignition system of smoking filtration device 1300A (a different view and perspective of devices 100-1200C) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00255] In a non-limiting embodiment, device 1300 A can include ignition block bottom receiver 901, ignition block top receiver 418, filter inlet connector 932B, charging/data connector 1303, control PCB 404, igniter cabling A 1306, igniter cabling B 1308, and ignition block power terminal A 1212A. Device 1300A can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, charging/data connector 1303 is a charging port that can allow the device's internal battery to receive charge, connection to a computer to allow for the firmware to be rewritten and allow for the loading of updates, and real-time diagnosis of the device 1300A status during quality assurance processes. In another aspect, charging/data connector 1303 can enable programming and/or updating of device 1300 A which prevents device 1300 A from locking into a single firmware version. Also, the opportunity to change firmware and other elements provides device 1300A the capacity to change ignition timing, fan speed, UI display info, and other device parameters. In another aspect, device 1300A can be recharged (e.g., after the battery depletes). In another aspect, charging/data connector 1303 can be mounted onto control PCB 404 and slide into charging/data cavity 114.

[00256] In another aspect, igniter cabling A 1306 and igniter cabling B 1308 are configured to supply a power current from control PCB 404 to respective device components upon initiation of an ignition sequence within device 1300 A. In another aspect, igniter cabling A 1306 and igniter cabling B 1308 can verify the occurrence of a complete connection between control PCB 404 and the ignition block power terminals and the igniter interaction plate contact pins. This verification can be used to prevent a short circuit and can provision a notification of the need to reinstall the igniter interaction cap 720. In another aspect, igniter cabling A 1306 and igniter cabling B 1308 can allow for the heating of the heating element. Furthermore, igniter cabling A 1306 and igniter cabling B 1308 can connect the control PCB to the ignition block power terminal A 1212A. In a non-limiting embodiment, ignition block power terminal A 1212A can include contact pins which fit inside of the ignition block. Furthermore, in an embodiment, the power terminals can be mounted on the igniter interaction cap (or ignition plate in other non-limiting embodiments). In another non-limiting embodiment, the excess heating element material can be configured as the contact pins. [00257] FIG. 13B illustrates a diagram of an example, non -limiting cross-sectional view of ignition system and heating element of smoking filtration device 1300B (a different view and perspective of devices 100- 1300 A) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00258] In a non-limiting embodiment, component 1300B can include heating element folds 610, heating element tip 611, igniter fixture component 716, igniter mounting 718, igniter interaction cap 720, ignition block top receiver 418, ignition block core 420, filter inlet connector 932B, charging/data connector 1303, control PCB 404, igniter cabling A 1306, igniter cabling B 1308, filter inlet connector 714, igniter fixture component 716, igniter mounting 718, ignition block sealing groove 1322, ignition block top orifice 1324, and ignition block leak-path 924. Component 1300B can include other components disclosed herein but not referenced or viewable in the illustration.

[00259] In an aspect, heating element 610 folds can provide some structure and rigidity to the nichrome heating element as the smoking media pushes down on the heating element 610 tip. As such, the heating element folds can pierce through the smoking media tip and embed within the active ingredient to be ignited within the smoking media tip. Also, in an aspect, heating element tip 611 can be one piece of metal that is folded. The implementation of a single metal piece folded into a structural protrusion simplifies the manufacturing process by requiring few component parts for heating element 610. In another aspect, heating element 610 folds can help provide structural integrity to the heating element. As such, heating element 610 folds can prevent the heating element tip from collapsing due to the added structural integrity generated by reinforced folded layers of metal.

[00260] In an aspect, heating element 610 can include heating element tip 611 configured as the portion of the folded nichrome, tungsten, or other resistive material, that conducts heat to ignite/heat the smoking media upon contact with the smoking media. In an aspect, the narrow bend at the top of the tip of heating element tip 611 can create a point of maximum resistance enabling the tip to reach temperatures ranging from gentle heating to active combustion. In an aspect, heating element tip 611 can comprise a narrow shape allowing heating element tip 611 to skewer into the smoking media tip. Accordingly, an ember grows from the central region of the smoking media tip outwards from the to evenly light the entire surface of the smoking media tip. As compared to an indiscriminate flame that touches a scattering of regions of the smoking media tip, heating element tip 611 allows for a controlled and even bum of the smoking media that continues such even burn as it rises through the remainder of the smoking media. In an aspect, heating element tip 611 can include a top portion of heating element 610. In a non-limiting embodiment, heating element tip 611 refers to the shape of the heating element and does not reference the hollow space in between the two slopes that form the heating element tip 611. In some non-limiting embodiments, heating element tip 611 can conduct heat to target ignition inducing temperatures in less than 3 seconds due to the high current discharge capability of the battery and the power management system of component 1300B. In other non-limiting embodiments, heating element tip 611 can conduct heat to target ignition inducing temperatures in a range of time between 4 seconds to two minutes.

[00261] In another aspect, component 130013 can employ ignition block sealing groove 1322 that is an extrusion on the ignition block top receiver 418 that holds an O-ring comprising an elastomeric material (e.g., silicone, rubber, etc.) configured to create a seal against heating tube portion 1218 (lower portion of heating tube 412). Accordingly, ignition block sealing groove 1322 can prevent leakage around the heating tube 1218 and ignition block top receiver 418. In a non-limiting embodiment, ignition block sealing groove 1322 can be an extrusion (cut-out) from the ignition block. In another non-limiting embodiment, ignition block sealing groove 1322 can be an internal O-ring groove configured to receive the heating tube such that the heating tube slips into the O-ring groove. In another non-limiting embodiment, this ignition block sealing groove 1322 can be located on the exterior of the ignition block and the heating tube portion 1218 can be fitted around the groove. In yet another aspect, device 1300B can include ignition block top orifice 1324 configured to allow the inner cavity of heating tube portion 1218 to connect to the cavity of the ignition block to allow smoke/air to pass into the filtration cavity.

[00262] Turning now to FIG. 13C, illustrated is a diagram of an example, non-limiting back view of ignition system and electronic system of smoking filtration component 1300C (a different view and perspective of devices 100- 13006 components) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In a non-limiting embodiment, component 1300C can include heating element tip 611, ignition block top receiver 418, filter inlet connector 932B, charging/data connector cavity 114, igniter cabling A 1306, igniter cabling B 1308, ignition block power terminal A 1212A, ignition block leak-path 924, and control PCB 404. Component 1300C can include other components disclosed herein but not referenced or viewable in the illustration. [00263] Turning now to FIG. 13D, illustrated is a diagram of an example, non-limiting left side view of ignition system of smoking filtration device components 1300D (a different view and perspective of devices 100-1300C components) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00264] In a non-limiting embodiment, component 1300D can include ignition block top receiver 418, ignition block core 420, filter inlet connector 932B, control PCB 404, igniter cabling A 1306, and igniter cabling B 1308. Components 1300D can include other components disclosed herein but not referenced or viewable in the illustration.

[00265] Turning now to FIG. 13E, illustrated is a diagram of an example, non-limiting perspective view of ignition system and detachable spike igniter subassembly of smoking filtration device 1300E (a different view and perspective of devices 100-1300D) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00266] In a non-limiting embodiment, device 1300E can include detachable mouthpiece 102, atrium 104, heating element folds 610, heating element tip 611, igniter interaction plate 720B, fresh-air intake orifice 926, ignition block bottom receiver 1222, igniter contact pin A 1346A and igniter contact pin B 1346B. In an aspect, device 1300E can include other components disclosed herein but not referenced or viewable in the illustration. Furthermore, in an aspect detachable spike igniter subassembly can comprise at least igniter interaction plate 720B, mounting, igniter mounting 718, heating element tip 611, igniter contact pins 1346A and 1346B. In an aspect, device 1300E can include igniter contact pin A 1346A and igniter contact pin B 1346B that are male connectors configured to fit into ignition block power terminal A 1212A and complete the electrical circuit which allows the power to be supplied to heating element 610. In another aspect, igniter contact pin A 1346A and igniter contact pin B 1346B can allow for the removal of heating element 610, igniter mounting 718, and igniter interaction cap 720. Accordingly, the ignition block cavity can be cleaned, replaced or interchanged, based on such removal capability. In another aspect, the igniter contact pin A 1346A and igniter contact pin B 1346B can be isolated from the smoking path and prevent residue buildup on the respective contact pins thus ensuring a proper connection upon each insertion of igniter contact pin A 1346A and igniter contact pin B 1346B. [00267] In another aspect, igniter contact pin A 1346A and igniter contact pin B 1346B can be mounted to igniter interaction cap 720. In a non-limiting embodiment, the heating element leads/terminals can be pushed against igniter interaction cap 720 from underneath (e.g., bottom surface. In another aspect, igniter contact pin A 1346 A and igniter contact pin B 1346B can interface with the ignition block power terminal A 1212A. In a non-limiting embodiment, igniter contact pin A 1346A and igniter contact pin B 1346B is a male prong mounted on top of heating element 610 leads/terminals. In other non-limiting embodiments, respective ignition blocks and heating element leads/terminals can remove the need of an additional component for the igniter contact pin A 1346A and igniter contact pin B 1346B. As such, the ignition blocks and heating element can be configured to act as a direct female interface with the ignition block power terminal A 1212A. In such embodiments, heating element leads/terminals can be an extension of heating element folds.

[00268] Turning now to FIG. 13F, illustrated is a diagram of an example, non-limiting perspective view of ignition system and detachable spike subassembly of smoking filtration device 1300F (a different view and perspective of devices 100-1300E) in the absence of a casing portion of device 1300F in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00269] In a non-limiting embodiment, device 1300E can include detachable mouthpiece 102, heating element folds 610, heating element tip 611, igniter interaction plate 720B, ignition block top receiver 418, ignition block core 420, heating tube 412, filter shell cup 936 A, silicone gasket 728, filter inlet connector 714, igniter mounting 718, igniter contact pin A 1346A, igniter contact pin B 1346B, ignition block bottom receiver 901, and ignition block core cavity 1352. In an aspect, device 1300F can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, device 1300E can include ignition block core cavity 1352 that is an empty space configured to house a sub-assembly which allows for heating element 620, igniter mounting 718, and igniter interaction plate 720B to be removed from device 1300E for replacement. In another aspect, ignition block core cavity 1352 can connect the combustion tube, replaceable igniter assembly and filter inlet connector. Furthermore, ignition block core cavity 1352 can allow for the replaceable igniter assembly to be removed for device maintenance. In another aspect, ignition block core cavity 1352 can allow for the bottom end of heating tube 412 to be hermetically sealed to prevent leakage.

[00270] Furthermore, ignition block core cavity 1352 can enable a smooth flow of air into the filter cavity which inhibits a pressure drop within the cavity from fan/air blower 502 or the user exhaling into device 13 OOF. Also, ignition block core cavity 1352 can allow for an occurrence of an internalized ignition process which contains all smoke at the point of ignition. Furthermore, ignition block core cavity 1352 eliminates the need for having an external component that inserts into the heating tube to ignite the smoking media. In another aspect, ignition block core cavity 1352 can connect together the replaceable igniter sub-assembly, heating tube 412, and filter inlet connector 714. In yet another aspect, ignition block core cavity 1352 can be comprised of any one or more material including stainless steel, aluminum, glass, ceramic, plastic or other such material.

[00271] In an aspect, device 1300E can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, device 1300E can include igniter contact pin A 1346A and igniter contact pin B 1346B that are male connectors configured to fit into ignition block power terminal A 1212A and complete the electrical circuit which allows the power to be supplied to heating element 610.

[00272]

[00273] Turning now to FIG. 13H, illustrated is a diagram of an example, non-limiting perspective view of smoking filtration device 13 OOH (a different view and perspective of devices 100- 1300G) in the absence of a casing portion of device I 300H and capturing a removal of the mouthpiece assembly with inserted smoking media in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00274] In a non-limiting embodiment, device 13 OOH can include detachable mouthpiece 102, atrium 104, heating element folds 610, heating tube 412, heating element tip 611, ignition block top receiver 418, filter inlet connector 714, and ignition block bottom receiver 901. In an aspect, device 1300G can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 13H illustrates the ignition assembly including heating element 610 fully inserted into device 13H and the smoking media item partially inserted and moving towards contact with heating element 610.

[00275] FIG. 131 illustrates a diagram of an example, non-limiting right side cross sectioned view of smoking filtration device 13001 (a different view and perspective of devices 100- 13 OOH) in the absence of a casing portion of device 13001 and capturing a removal or insertion of the mouthpiece assembly with inserted smoking media in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In a non-limiting embodiment, device 13001 can include detachable mouthpiece 102, atrium 104, heating element folds 610, heating tube 412, heating element tip 611, igniter interaction plate 720B, ignition block top receiver 418, vented holder 956, filter inlet connector 714, igniter mounting 718, smoking media core 1362 A, smoking media tip 1362B and ignition block bottom receiver 901. In an aspect, device 13001 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 131 illustrates the ignition assembly including heating element 610 fully inserted into device 131 and the smoking media item partially inserted and moving towards contact with heating element 610.

[00276] In an aspect, smoking media core 1362 A can include a portion of the smoking media that contains the smoking media which has yet to be ignited or heated for consumption. As consumption occurs, smoking media core 1362A is converted to a byproduct material (such as ash, tar, etc.) and the smoking media tip 1362B consumes more of the smoking media core 1362 A. In an aspect, smoking media core 1362 A can be the portion of the smoking media between the non -heatable smoking media 1362C and the smoking media tip 1362B.

[00277] Turning now to FIG. 13 J, illustrated is a diagram of an example, non-limiting right side view of smoking filtration device 1300 J (a different view and perspective of devices 100-13001) in the absence of a casing portion of device 1300J and capturing a fully inserted mouthpiece assembly with inserted smoking media in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00278] In a non-limiting embodiment, device 1300 J can include detachable mouthpiece 102, atrium 104, heating element folds 610, heating tube 412, smoking media core 1362 A, smoking media tip 1362B, non-heatable smoking media 1362C and ignition block bottom receiver 901. In an aspect, device BOOK can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, FIG. 13 J illustrates the ignition assembly including heating element 610 fully inserted into device 13J and the smoking media item fully inserted within heating tube 412. In an aspect, heating element tip 611 directly contacts smoking media tip 1362B and is nested within such tip as is illustrated in FIG. 13 J.

[00279] Turning now to FIG. 13K, illustrated is a diagram of an example, non-limiting perspective view of smoking filtration device BOOK (a different view and perspective of devices 100- 1300K) in the absence of a casing portion of device BOOK and capturing a fully inserted mouthpiece assembly with inserted smoking media in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00280] In a non-limiting embodiment, device BOOK can include detachable mouthpiece 102, atrium 104, heating element folds 610, heating tube 412, smoking media core 1362 A, smoking media tip 1362B, non-heatable smoking media 1362C and ignition block bottom receiver 901. In an aspect, device BOOK can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, FIG. 13 J illustrates the ignition assembly including heating element 610 fully inserted into device 13K and the smoking media item fully inserted within heating tube 412. In an aspect, heating element tip 611 directly contacts smoking media tip 1362B and is nested within such tip as is illustrated in FIG. 13K.

[00281] Turning now to FIG. 13L, illustrated is a diagram of an example, non-limiting perspective view of smoking filtration device BOOL (a different view and perspective of devices 100- 1300K) and a cross-sectioned view of smoking media inserted into a fully inserted mouthpiece assembly with inserted smoking media in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00282] In a non-limiting embodiment, device BOOL can include detachable mouthpiece 102, atrium 104, ignition block top receiver 418, ignition block core 420, heating element folds 610, heating element tip 611, and smoking media tip 1362B. In an aspect, device BOOK can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, FIG. 13L illustrates a cross sectioning of a smoking media item while fully inserted into device BOOL. This illustration highlights the embedded nature of heating element tip 611 (the portion of the heating element that conducts heat and ignites the smoking media item) to embed within smoking media tip 1362B and effectuate an effective and even lighting and burn of smoking media item. In an aspect, heating element tip 611 directly contacts smoking media tip 1362B, the hottest point of the smoking media, and is nested within such tip as is illustrated in FIG. 13L. In an aspect, the high temperature of smoking media tip 1362B is detectable by the heat sensors and can communicate such detected information to the control PCB 404 which can in turn power off fan/air blower 502 and result in the deactivation of the smoking media. [00283] Turning now to FIG. 13M, illustrated is a diagram of an example, non-limiting perspective view of the spike heating assembly 13 OOM (a different view and perspective of devices 1 GO- 1300L) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00284] In a non-limiting embodiment, spike heating assembly BOOM can include heating element folds 610, heating element tip 611, igniter interaction plate 720B, igniter mounting 718, igniter contact pin A 1346A, and igniter contact pin B 1346B. In an aspect, device BOOK can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, FIG. 13M illustrates an isolated view of spike heating assembly BOOM. In an aspect, the spike nature of the heating element tip generates heat and increases in temperature to ignite the smoking media item (e.g., smoking media tip 1362B). The narrow bend of heating element tip 611 allows the tip to skewer into the smoking media tip 1362B and emit temperatures that range from a gentle heating to combustion. [00285] In another aspect, heating element folds 610 provide structural rigidity to the heating element to counter the force of the smoking media item pushing down onto heating element tip 611 upon a contact interface between the components. Furthermore, in a non-limiting embodiment, heating element folds 610 allows the heating element to be a single metal component which reduces the number of component parts during manufacturing and makes such manufacturing process more efficient. The structural foundation provided by heating element folds 610 allows heating element tip 611 to maintain its structural integrity and prevents its collapsing. In a non-limiting embodiment, unlike heating element tip 611, heating element folds 610 do not heat up. In a non-limiting embodiment, heating element folds 610 can extend to form heating element terminals that interface with the underside of the igniter contact pins. In another non-limiting embodiment, heating element folds 610 can act as the contact pins themselves.

[00286] In a non-limiting embodiment, igniter interaction plate 720B can include threading itself that enables the cap itself to unthread and detach from the ignition block. In the non-limiting embodiment of spike heating assembly BOOM the igniter interaction plate 720B is unthreaded and the igniter fixture component needs to be removed to remove the igniter interaction plate 720B. In another non-limiting embodiment, the igniter interaction plate 720B and igniter mounting 718 can be molded into one part to simplify the assembly and manufacturing process. In an aspect, igniter mounting 718 is referenced more than once to illustrate several portions of the same component. In the non-limiting embodiment of spike heating assembly BOOM, igniter contact pin A 1346A and igniter contact pin B 1346B are male prongs mounted to the top of the heating element leads and/or terminals. In other nonlimiting embodiments, the heating element leads/terminals act as direct female interface portions with the ignition block power terminal B.

[00287] Turning now to FIG. 13N, illustrated is a diagram of an example, non-limiting left side view of the spike heating assembly BOON (a different view and perspective of devices 100- 13 OOM) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00288] In a non-limiting embodiment, spike heating assembly BOON can include heating element folds 610, heating element tip 611, igniter interaction plate 720B, igniter mounting 718, igniter contact pin B 1346B. In an aspect, spike heating assembly BOON can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, FIG. 13N illustrates an isolated view of spike heating assembly BOON. In an aspect, the spike nature of the heating element tip generates heat and increases in temperature to ignite the smoking media item (e.g., smoking media tip 1362B). The narrow bend of heating element tip 611 allows the tip to skewer into the smoking media tip 1362B and emit temperatures that range from a gentle heating to combustion. [00289] Turning now to FIG. 130, illustrated is a diagram of an example, non-limiting back view of the spike heating assembly 13000 (a different view and perspective of devices 100- BOON) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In a non-limiting embodiment, spike heating assembly 13000 can include heating element folds 610, heating element tip 611, igniter interaction plate 720B, igniter mounting 718, igniter contact pin A 1346A, and igniter contact pin B 1346B. In an aspect, spike heating assembly 13000 can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, FIG. 130 illustrates an isolated view of spike heating assembly 13000.

[00290] Turning now to FIG. 13P, illustrated is a diagram of an example, non-limiting top view of the spike heating assembly 13 OOP (a different view and perspective of devices 100-13000) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00291] In a non-limiting embodiment, spike heating assembly 13 OOP can include heating element folds 610, heating element tip 611, igniter interaction plate 720B, igniter mounting 718, igniter contact pin A 1346A, igniter contact pin B 1346B, and igniter fixture component port 1220. In an aspect, spike heating assembly 1300P can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, FIG. 13P illustrates an isolated view of spike heating assembly 13 OOP. In an aspect, spike heating assembly 13 OOP can include igniter fixture component port 1220 that allows the igniter fixture component to thread through the igniter interaction plate 720B and the igniter mounting 718 to hold such components and the heating element in place. In another aspect, igniter fixture component port 1220 can allow the igniter interaction plate 720B to be removed and such removal can allow for access to the heating element (e.g., for servicing). In an aspect, igniter fixture component port 1220 can be an extrusion (cutout) of the ignition block bottom receiver end.

[00292] Turning now to FIG. 13R-1, illustrated is a diagram of an example, non-limiting cross- sectional view of the front of smoking filtration device 1300R-1 (a different view and perspective of devices 100-1300Q) and an insertion of the mouthpiece assembly with a misaligned smoking media into device 1300R-1 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00293] In a non-limiting embodiment, smoking filtration device 1300R-1 can include detachable mouthpiece 102, atrium 104, ignition block top receiver 418, vented holder 956, silicone gasket 728, igniter interaction cap 720, heating element slope A 1304A, heating element slope B 1304B, heating element arch 1304C, smoking media core 1362A, smoking media tip 1362B, and non-heatable smoking media 1362C. In an aspect, smoking filtration device 1300R-1 can include other components disclosed herein but not referenced or viewable in the illustration.

[00294] In a non-limiting embodiment, smoking filtration device 1300R-1, igniter interaction cap 720 has threading which allows the cap to be removed from the ignition block without extra tools. For instance, igniter interaction cap 720 can be turned (e.g., by user hand) such that the cap is detached from the threaded interlocking mechanism between the cap and the ignition block. In another embodiment, the threading can be replaced with another interlocking feature set that allows for less rotation and for the ignition block/igniter sub-assembly to be less thick due to the removal of the circumferential threading. In another non-limiting embodiment, smoking filtration device 1300R-1 can include heating element slope A 1304 A and heating element slope B 1304B that are portions of the heating element and capable of reaching high temperatures to heat/ignite the smoking media tip 1362B. Furthermore, heating element slope A 1304 A and heating element slope B 1304B are sloped to allow for the perimeter of smoking media tip 1362B to be ignited. [00295] As such, in the event the smoking media is non-cylindrical (e.g., conical) or uneven or inserted in a non-centered alignment relative to the heating element, then the perimeter of the smoking media tip can contact heating element slope A 1304A and/or heating element slope B 1304B and still achieve a successful ignition. Accordingly, smoking media items of varying ranges of lengths and shapes can be ignited using heating element slope A 1304 A and heating element slope B 1304B. In an aspect, heating element slope A 1304 A and heating element slope B 1304B can be the inner-facing sloped feature of the heating element. Furthermore, in an aspect, heating element slope A 1304 A, heating element slope B 1304B, and heating element arch 1304C can reach high temperatures simultaneously and in some non-limiting embodiments can achieve maximum temperature in less than three seconds.

[00296] In another non-limiting embodiment, smoking filtration device 1300R-1 can include heating element arch 1304C that is a central portion of the heating element that can reach high temperatures to heat/ignite smoking media tip 1362B and ignite the epicenter of smoking media tip 1362B. In an aspect, heating element arch 1304C can be the protruding portion or arch of the heating element and can slightly pierce into the smoking media. In an aspect, heating element arch 1304C can ensure direct contact with the smoking media is achieved which increases the speed for the smoking media tip 1362B to reach the threshold activation temperature. In another aspect, heating element arch 1304C can be the enlarged surface area of the arch (as compared to heating element tip 611) such that a greater number of contact points between heating element arch 1304C and the smoking media tip 1362B are achieved. As such, the time for smoking media tip 1362B to achieve the activation temperature is shortened.

[00297] In another aspect, the increased surface area of heating element arch 1304C allows the smoking media tip 1362B to be ignited regardless of whether the internal smoking media is exposed (e.g., open tip) or covered (e.g., closed tip, folded over tip, etc.). In yet another aspect, heating element arch 1304C can be the central inner portion feature of the heating element. In a non-limiting embodiment, heating element arch 1304C, heating element slope A 1304 A and heating element slope B 1304B are all different portions of a single component.

[00298] Turning now to FIG. 13R-2, illustrated is a diagram of an example, non-limiting cross- sectional view of the front of smoking filtration device 1300R-2 (a different view and perspective of devices 100-1300R-1) and illustrates the igniter mounting lead-in aligning an initially misaligned smoking media item during insertion of the smoking media item an insertion of the mouthpiece assembly with a smoking media inserted into device 1300R-2 in accordance with one or more embodiments described herein. . Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00299] In a non-limiting embodiment, smoking filtration device 1300R-2 can include detachable mouthpiece 102, atrium 104, vented holder 956, silicone gasket 728, igniter interaction cap 720, heating element slope A 1304 A, heating element slope B 1304B, heating element arch 1304C, heating element terminal A 1308 A, heating element terminal B 1308B, insulated contact pin A 1310A, insulated contact pin B 1310B, igniter mounting lead-in 1312, smoking media core 1362A, smoking media tip 1362B, and non-heatable smoking media 1362C. In an aspect, smoking filtration device 1300R-2 can include other components disclosed herein but not referenced or viewable in the illustration.

[00300] In an aspect, smoking filtration device 1300R-2 can employ heating element terminal A and heating element terminal B that can be a portion of the heating element that acts as the electrical contact (with insulated contact pin A 1310A and insulated contact pin B 1310B respectively) to allow power to be delivered to the heating element such that ignition of the smoking media can occur. In an aspect, the presence of heating element terminal A and heating element terminal B can do away with other components such as igniter interaction plate contact pins in other disclosed non-limiting embodiments, by enabling the heating element to be the electrical contact itself and simplifies the assembly of the heating element, mounting mechanism, and igniter interaction cap 720 sub-assembly. Furthermore, in an aspect, heating element terminal A and/or heating element terminal B can have the terminals folded around the ignition mounting (into the igniter mounting rails) to keep the heating element fastened in place and provide additional rigidity to counteract the force produced by the smoking media that descends upon the heating element. In another aspect, heating element terminal A and/or heating element terminal B can be the portion of the heating element that is threaded through the igniter mounting holes and folded into the igniter mounting rail section such that the terminals interact with the insulated contact pin A 1310A and insulated contact pin B 1310B respectively. In a nonlimiting embodiment, the igniter interaction plate contact pins (which in other non-limiting embodiments are male and connected to the heating element) are heating element terminals that act as the contact pins themselves and can be female portions.

[00301] In an aspect, smoking filtration device 1300R-2 can employ insulated contact pin A and insulated contact pin B are configured to allow the igniter cabling A 1306 to complete a connection with the heating element in order for power to be supplied to heating element which allows the smoking media to be heated and/or ignited. In another aspect, the insulated nature of the contact pin portion of insulated contact pin A and insulated contact pin B can enable stable electrical supplies and prevent any electrical interference with the ignition block (which can be made of metal or another material in various non-limiting embodiments) because insulated contact pin A and insulated contact pin B is threaded through the ignition block. In yet another aspect, insulated contact pin A and insulated contact pin B can allow the electrical cabling to be positioned outside of the ignition block therefore preventing any excessive heat or residue build up on the cabling, which could otherwise negatively impact the electrical connectivity of the device components and overall functioning of the device.

[00302] In another aspect, insulated contact pin A and insulated contact pin B can allow for the heating element (e.g., non-limiting embodiment of heating element disclosed in 13R-2), igniter interaction cap 720, and/or mounting to be removed and then continue the connection upon reinsertion of the igniter sub-assembly. In another aspect, the side of insulated contact pin A and insulated contact pin B facing the ignition block cavity can interact with the heating element terminals and the side of insulated contact pin A and insulated contact pin B facing outwards can connect to igniter cabling A 1306 and igniter cabling B 1308, which is connected to control PCB 404. Furthermore, insulated contact pin A and insulated contact pin B can be positioned within the ignition block power port extrusions on the ignition block core.

[00303] In another aspect, insulated contact pin A and insulated contact pin B can be a spring loaded pogo-pin or another type of electrical connector, which could be made of any one or more material such as brass, gold, silver or another highly conductive material. In a non-limiting embodiment, the spring loaded pogo-pin of insulated contact pin A and insulated contact pin B could apply some additional force on the heating element terminals to ensure a strong electrical connection as well as to provide some rigidity to keep the heating element secure. In another aspect, insulated contact pin A and insulated contact pin B can replace the ignition block power terminals in other non-limiting embodiments and can instead be male prongs instead of female receivers. In another non-limiting embodiment, insulated contact pin A and insulated contact pin B can be threaded into the ignition block core via extrusions (cut-outs) also referred to as the ignition block power ports. In another aspect, the insulation on insulated contact pin A and insulated contact pin B is a non-conductive material coating, or a secondary component which can act as a sheath for the contact pin as it is inserted into the ignition block core. [00304] In yet another aspect, device 1300R-2 can include igniter mounting lead-in 1312 that is an elliptically shaped sloped surface on which the top of the igniter mounting 718 that can redirect a misaligned smoking media (e.g., during insertion) into alignment towards the center of the heating element. As such, the sloped lip of igniter mounting lead-in 1312 can realign off-center smoking media items back towards the center of the heating element. In an aspect, igniter mounting lead-in 1312 can be located at the top surface of the igniter mounting 718. In another aspect, igniter mounting lead-in 1312 can be elliptical in nature and shape such that cylindrical, conical, or other shaped smoking media inserted through igniter mounting lead-in 1312 can be slightly pinched at two opposite points which allows the smoking media to be properly centered and firmly held in place to reduce instability during the ignition process.

[00305] FIG. 13R-3 illustrates a diagram of an example, non-limiting cross-sectional view of the front of smoking filtration device 1300R-3 (a different view and perspective of devices 100-1300R-2) and illustrates the igniter mounting lead-in aligning an initially misaligned smoking media item with the mouthpiece assembly with to be aligned while smoking media fully inserted into device 1300R-3 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00306] In a non-limiting embodiment, smoking filtration device 1300R-3 can include detachable mouthpiece 102, atrium 104, vented holder 956, silicone gasket 728, igniter interaction cap 720, heating element slope A 1304 A, heating element slope B 1304B, heating element arch 1304C, heating element terminal A 1308 A, heating element terminal B 1308B, insulated contact pin A 1310A, insulated contact pin B 1310B, smoking media core 1362A, smoking media tip 1362B, and non-heatable smoking media 1362C. In an aspect, smoking filtration device 1300R-3 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 13R-3 illustrates a corrected smoking media item that is realigned once fully inserted within device 1300R-3 with the assistance of the lip of igniter mounting lead-in 1312.

[00307] FIG. 13R-4 illustrates a diagram of an example, non-limiting cross sectional perspective view of smoking filtration device 1300R-4 (a different view and perspective of devices 100-1300R-3) and an insertion of the mouthpiece assembly with smoking media into device 1300R-4 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. [00308] In a non-limiting embodiment, smoking filtration device 1300R-4 can include detachable mouthpiece 102, atrium 104, vented holder 956, silicone gasket 728, electronics subframe 918, heating element slope A 1304 A, heating element slope B 1304B, heating element arch 1304C, and igniter mounting lead-in 1312. In an aspect, smoking filtration device 1300R-4 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 13R-4 illustrates a front portion cross-sectional view of smoking filtration device 1300R-4 which illustrates the position of the heating element comprising heating element slope A 1304A, heating element slope B 1304B, heating element arch 1304C within the ignition assembly.

[00309] Turning now to FIG. 13R-5 illustrates a diagram of an example, non-limiting cross sectional perspective view of smoking filtration device 1300R-5 (a different view and perspective of devices 100-1300R-4) and an insertion of the mouthpiece assembly with smoking media into device 1300R-5 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00310] In a non-limiting embodiment, smoking filtration device 1300R-5 can include detachable mouthpiece 102, atrium 104, heating element slope A 1304 A, heating element slope B 1304B, heating element arch 1304C, igniter mounting lead-in 1312, smoking media core 1362A, smoking media tip 1362B, and non-heatable smoking media 1362C. In an aspect, smoking filtration device 1300R-5 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 13R-5 illustrates a front portion cross-sectional view of smoking filtration device 1300R-5 which illustrates the position of the heating element comprising heating element slope A 1304 A, heating element slope B 1304B, heating element arch 1304C within the ignition assembly as smoking media item is inserted into the heating tube cavity.

[00311] Turning now to FIG. 13R-6, illustrated is a diagram of an example, non-limiting cross sectional view of the front of smoking filtration device 1300R-6 (a different view and perspective of devices 100-1300R-5) with the mouthpiece assembly with smoking media fully inserted into device 1300R-6 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00312] In a non-limiting embodiment, smoking filtration device 1300R-6 can include detachable mouthpiece 102, atrium 104, igniter interaction cap 720, heating element slope A 1304 A, heating element slope B 1304B, heating element arch 1304C, igniter mounting lead-in 1312, smoking media core 1362A, smoking media tip 1362B, and non-heatable smoking media 1362C. In an aspect, smoking filtration device 1300R-6 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 13R-6 illustrates a front portion cross-sectional view of smoking filtration device 1300R-6 which illustrates the position of the heating element comprising heating element slope A 1304 A, heating element slope B 1304B, heating element arch 1304C within the ignition assembly as smoking media item is fully inserted into the heating tube cavity. As illustrated, the smoking media tip 1362B can directly contact heating element slope A 1304 A (e.g., perimeter portion of smoking media item), heating element slope B 1304B (e.g., perimeter portion of smoking media item), and/or heating element arch 1304C (e.g., core of smoking media tip 1362C).

[00313] Turning now to FIG. 13R-7, illustrated is a diagram of an example, non-limiting cross sectioned front view of smoking filtration device 1300R-7 (a different view and perspective of devices 100-1300R-6) and an insertion of the mouthpiece assembly with smoking media into device 1300R-7 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00314] In a non-limiting embodiment, smoking filtration device 1300R-7 can include igniter interaction cap 720, heating element slope A 1304A, heating element slope B 1304B, heating element arch 1304C, heating element terminal A 1308A, heating element terminal B 1308B, igniter mounting lead-in 1312, ignition block leak-path 942, and smoking media tip 1362B. In an aspect, smoking filtration device 1300R-7 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, FIG. 13R-5 illustrates a front portion cross-sectional view of smoking filtration device 1300R-7 which illustrates the position of the heating element comprising heating element slope A 1304 A, heating element slope B 1304B, heating element arch 1304C within the ignition assembly as smoking media item is inserted into the heating tube cavity.

[00315]

[00316] Turning now to FIG. 13R-9, illustrated is a diagram of an example, non-limiting cross sectional view of the front of smoking filtration device 1300R-9 (a different view and perspective of devices 100-1300R-8) and illustrates an aligned insertion in the absence of contacting the igniter mounting lead-in with the mouthpiece assembly with smoking media fully inserted into device 1300R-9 in accordance with one or more embodiments described herein.

[00317] Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. [00318] In a non-limiting embodiment, smoking filtration device 1300R-9 can include igniter ignition cap 720, heating element slope A 1304A, heating element slope B 1304B, heating element arch 1304C, heating element terminal A 1308 A, heating element terminal B 1308B, and smoking media tip 1362B. In an aspect, smoking filtration device 1300R-9 can include other components disclosed herein but not referenced or viewable in the illustration. As illustrated, the smoking media tip 1362B is fully inserted into the heating tube cavity and can directly contact heating element slope A 1304A (e.g., perimeter portion of smoking media item), heating element slope B 1304B (e.g., perimeter portion of smoking media item), and/or heating element arch 1304C (e.g., core of smoking media tip 1362C). In another aspect, the sloped angle of the igniter mounting lead-in allows for non-centrally aligned (or misaligned) smoking media to be assisted towards either the heating element slopes or arch to ensure a proper light even if alignment is slightly off.

[00319] Turning now to FIG. 13R-10, illustrated is a diagram of an example, non-limiting top down view of the elliptical pocket of smoking filtration device components 1300R-10 (a different view and perspective of devices 100-1300R-9) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00320] In a non-limiting embodiment, smoking filtration device 1300R-10 can include widened mounting lead-in feature 1320A, widened mounting lead-in feature 1320B, narrowed mounting lead-in feature 1320C, narrowed mounting lead-in feature 1320D, igniter mounting 718, ignition block top receiver 418, ignition block core 420, igniter mounting rail A 1328A, igniter mounting rail B 1328B. In an aspect, smoking filtration device 1300R-10 can include other components disclosed herein but not referenced or viewable in the illustration.

[00321] In an aspect, smoking filtration device components BOOR- 10 can include widened mounting lead-in feature 1320A and widened mounting lead-in feature 1320B configured to provide free-clearance for the smoking media tip 1362B to enter smoothly into the ignition block cavity and touch heating element slope A 1304A, heating element slope B 1304B and/or heating element arch 1304C. In an aspect, the diameter formed between widened mounting lead-in feature 1320A and widened mounting lead-in feature 1320B is an open space that provides the smoking media room to enter the ignition block (e.g., upon insertion or lowering into the mounting lead-in) where widened mounting lead-in feature 1320A and widened mounting lead-in feature 1320B provides counteracting resistance against the smoking media item to center the smoking media item within the opening. Furthermore, in a non-limiting embodiment, widened mounting lead-in feature 1320A and widened mounting lead-in feature 1320B can be part of the shape of the igniter mounting top opening and lead-in itself. In another non-limiting embodiment, widened mounting lead-in feature 1320A and widened mounting lead-in feature 1320B allows for the largest cross-section for the igniter mounting to accommodate the largest diameter of smoking media tip to enter the device.

[00322] In an aspect, smoking filtration device components BOOR- 10 can include narrowed mounting lead-in feature 1320C and narrowed mounting lead-in feature 1320D that are components configured to provide resistance to either grasp the smoking media tip or smoking media core at two opposite points in the case of misalignment or to compact and funnel the smoking media tip or smoking media core in the event the smoking media item is oversized. In another aspect, narrowed mounting lead-in feature 1320C and narrowed mounting lead-in feature 1320D can be malleable and thus capable of adapting based on forces applied on it. Furthermore, narrowed mounting lead-in feature 1320C and narrowed mounting lead-in feature 1320D cab guide the smoking media towards the center of the heating element to ensure the best heating and/or ignition outcome. In other non-limiting embodiments, narrowed mounting lead-in feature 1320C and narrowed mounting lead-in feature 1320D can be molded into a compact shape such that smoking media tips with slightly oversized diameters can be centered within the ignition block and heating element. In a non-limiting embodiment, narrowed mounting lead- in feature 1320C and narrowed mounting lead-in feature 1320D can be part of the shape of the igniter mounting top opening and lead-in. In an aspect, ignition block top receiver 418 referenced in illustration FIG. 13 R-10 points specifically to the top receiving end of the ignition block configured to house either the internal or external O-rings required for sealing against the heating tube.

[00323] In an aspect, smoking filtration device components BOOR- 10 can include igniter mounting rail A 1328 A and igniter mounting rail B 1328B configured to allow the igniter mounting 718 to properly align with the ignition block such that the heating element terminals (e.g., heating element terminal A 1308 A and heating element terminal B 1308B) line up with the ignition block contact pins (e.g., insulated contact pin B 1310B and insulated contact pin A 1310A). In another aspect, igniter mounting rail A 1328 A and igniter mounting rail B 1328B can act as a guide to ensure that a contact is made each time the igniter mounting 718, igniter interaction cap 720, and heating element is removed and reinserted from the ignition block by creating a guide to the contact pins. In some non-limiting embodiments, in the absence of contact the heating element will not power on. In another aspect, igniter mounting rail A 1328 A and igniter mounting rail B 1328B can act as a raised sheathing or guard that can prevent the heating element from incurring damage when inserted into the ignition block at an unconventional angle or the heating element is exposed to a substantial impact (e.g., dropped on the floor). In another aspect, igniter mounting rail A 1328 A and igniter mounting rail B 1328B can act as a feature on the external sidewall of the igniter mounting that exposes igniter mounting holes.

[00324] Turning now to FIG. 13R-11, illustrated is a diagram of an example, non-limiting cross sectioned front view of smoking filtration device 1300R-11 (a different view and perspective of devices 100-1300R-10) and an insertion of a large smoking media item into device 1300R-11 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00325] In a non-limiting embodiment, smoking filtration device 1300R-9 can include detachable mouthpiece 102, atrium 104, igniter ignition cap 720, heating element slope A 1304 A, heating element slope B 1304B, heating element arch 1304C, heating element terminal A 1308 A, heating element terminal B 1308B, igniter mounting lead-in 1312, ignition block leak-path 942, smoking media core 1362 A, non-heatable smoking media 1362C, and smoking media tip 1362B. In an aspect, smoking filtration device 1300R-11 can include other components disclosed herein but not referenced or viewable in the illustration. As illustrated in FIG. 1300R-11, the smoking media tip 1362B of an oversized smoking media item is almost fully inserted into the heating tube cavity and can eventually directly contact heating element slope A 1304A (e.g., perimeter portion of smoking media item), heating element slope B 1304B (e.g., perimeter portion of smoking media item), and/or heating element arch 1304C (e.g., core of smoking media tip 1362C) upon complete insertion into heating tube cavity. The heating element allows the oversized nature of a smoking media item to be ignited by any of the contact points of 1304 A, 1304B, and 1304C that interface with the smoking media tip 1362B.

[00326] Turning now to FIG. 13R-12, illustrated is a diagram of an example, non-limiting cross sectioned front view of smoking filtration device 1300R-12 (a different view and perspective of devices 100-1300R-11) and an insertion of a large smoking media item into device 1300R-11 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00327] In a non-limiting embodiment, smoking filtration device DOOR- 13 can include detachable mouthpiece 102, atrium 104, igniter ignition cap 720, heating element slope A 1304 A, heating element slope B 1304B, heating element arch 1304C, heating element terminal A 1308A, heating element terminal B 1308B, igniter mounting lead-in 1312, ignition block leak-path 942, smoking media core 1362 A, non-heatable smoking media 1362C, and smoking media tip 1362B. In an aspect, smoking filtration device 1300R-12 can include other components disclosed herein but not referenced or viewable in the illustration. As illustrated in FIG. 1300R-12, the smoking media tip 1362B of an oversized or wider smoking media item is almost fully inserted into the heating tube cavity and can eventually directly contact heating element slope A 1304A (e.g., perimeter portion of smoking media item), heating element slope B 1304B (e.g., perimeter portion of smoking media item), and/or heating element arch 1304C (e.g., core of smoking media tip 1362C) upon complete insertion into heating tube cavity. The heating element allows the oversized nature of smoking media item to be ignited by any of the contact points of 1304A, 1304B, and 1304C that interface with the smoking media tip 1362B. [00328] Turning now to FIG. 13R-14, illustrated is a diagram of an example, non-limiting right side view of smoking filtration device 1300R-14 (a different view and perspective of devices 100- 1300R-13) including a detachable ignition assembly in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In an aspect, smoking filtration device 1300R-14 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-14 illustrates a non -limiting embodiment of igniter interaction cap 720 that can be unthreaded from the ignition block threading without the need for external tools. A user can simply turn the igniter interaction cap 720 by hand to release the cap and other components (e.g., igniter fixture component, heating element, etc.)from the ignition block. In the referenced illustration, igniter interaction cap 720 can fit alongside the device unibody.

[00329] Turning now to FIG. 13R-15, illustrated is a diagram of an example, non-limiting right side view of smoking filtration device 1300R-15 (a different view and perspective of devices 1 GO- 1300R- 14) including the detachable ignition assembly removed from device 1300R-15 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00330] In an aspect, smoking filtration device 1300R-15 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R- 15 can include igniter interaction cap 720, igniter mounting rail 1328 A, igniter mounting rail 1328B, ignition block bottom threaded receiver 1341, heating element terminal A 1308A and heating element terminal B 1308B. In a non-limiting embodiment, smoking filtration device 1300R-15 can include ignition block bottom threaded receiver 1341 can allow the ignition interaction plate to be inserted into the ignition block and connect to the ignition block power terminal A 1212A and ignition block power terminal B 1212B. In another aspect, ignition block bottom threaded receiver 1341 allows for the removal of the ignition interaction plate and heating element. In an instance, such removal can allow for cleaning of the heating tube and enhances the lifespan of the device (e.g., allowing access to component parts for replacement such as the heating element). In a non-limiting embodiment, ignition block bottom threaded receiver 1341 is a feature that is part of the ignition block itself and configured to nest into the bottom corner of the unibody. In another non-limiting embodiment, ignition block bottom threaded receiver 1341 can utilize threading to attach the ignition block to the igniter interaction cap 720.

[00331] Turning now to FIG. 13R-16, illustrated is a diagram of an example, non-limiting cross sectional right side view of smoking filtration device 1300R-16 (a different view and perspective of devices 100-1300R-15) including a detachable ignition assembly in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00332] In an aspect, smoking filtration device 1300R-16 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R- 15 can include detachable mouthpiece 102, fresh-air intake orifice 926, filter inlet connector 714, filter inlet 968B, filter shell cup 936, igniter interaction cap 720, silicone gasket fin 726, hollowed inhale valve 1326A, hollowed exhale valve 1326B, hollowed fresh-air intake valve 1326C, fresh-air intake cartridge inlet orifice 1328, vented-holder cartridge exhaust orifice 1330, inhale intake cartridge orifice 1332, cartridge internal exhale orifice 1334, battery 968, heating element terminal 1308B, inhale valve seat 1351 A, exhale valve seat 135 IB, fresh-air intake valve seat 1351C, atmospheric cartridge orifice 1352, mouthpiece cavity 320, smoking media core 1362A, smoking media tip 1362B, and non-heatable smoking media 1362C.

[00333] In an aspect, smoking filtration device BOOR- 16 can employ hollowed inhale valve 1326A that is a valve configured to regulate the flow of aerosol for the inhale pathway by flexing open when sufficient pressure is reached to crack the valve. In an aspect, hollowed inhale valve 1326A, hollowed exhale valve 1326B, and hollowed fresh-air intake valve 1326C can be located within a valve cartridge assembly configured for insertion, removal, and/or replacement into device 1300R-16. In another aspect, hollowed inhale valve 1326A prevents the inhalation of exhaled or burning smoking media tip smoke (e.g., sidestream smoke). Furthermore, hollowed inhale valve 1326A can flex open based on achieving a low threshold cracking pressure applied to the valve based on a low inhale pressure (e.g., as applied by the user). As such, the user experience is enhanced due to the low inhale pressure requirement (e.g., user only needs to apply a light inhale force to crack open the valve).

[00334] In a non-limiting embodiment, hollowed inhale valve 1326A can be the hollowed central portion of the valve assembly to remove the need for the valve to be pulled through the seat for proper sealing which simplifies the valve cartridge assembly. Furthermore, in a non-limiting embodiment, hollowed inhale valve 1326A can be mounted onto the inhale valve seat. In another aspect, the valve seat to which interfaces with hollowed inhale valve 1326A can push on the hollowed center, which applies pressure on hollowed inhale valve 1326A and seals the perimeter of the valve to the flat surface of the seat. In such non-limiting embodiment, a difference exists from the disclosed umbrella valve and stem mechanism, which is pulled through the seat to create tension within the umbrella valve to accomplish its seating. As such, hollowed inhale valve 1326A requires a push force on the valve versus a pull force required by other disclosed umbrella valve and stem embodiments.

[00335] In another non-limiting embodiment, hollowed exhale valve 1326B can regulate the flow of aerosol for the exhale pathway by flexing open upon achieving a threshold pressure to crack the valve. In an aspect, hollowed exhale valve 1326B can prevent the occurrence of exhaled air passing through the smoking media. Furthermore, hollowed inhale valve 1326A can flex open based on attainment of low threshold cracking pressure applied to the valve based on a low exhale pressure (e.g., as applied by the user). As such, the user experience is enhanced due to the low exhale pressure requirement (e.g., user only needs to apply a light exhale force to crack open the valve).

[00336] In a non-limiting embodiment, hollowed exhale valve 1326B can be the hollowed central portion of the valve assembly to remove the need for the valve to be pulled through the valve seat for proper sealing which simplifies the valve cartridge assembly. Furthermore, in a non-limiting embodiment, hollowed exhale valve 1326B can be mounted onto the exhale valve seat. In another nonlimiting embodiment, hollowed exhale valve 1326B and hollowed fresh-air intake valve 1326C can be connected via an elastomeric column that allows for both valves to be secured in place with a single mechanical component. The need for only a single mechanical component allows for an efficient manufacturing process that implements the two valves into a single component. In another non-limiting embodiment, hollowed exhale valve 1326B and hollowed fresh-air intake valve 1326C can be the same valve in form and structure as hollowed inhale valve 1326A given that they are all single-function valve components and separated by an additional mechanical seat and/or spacing component. [00337] In yet another non-limiting embodiment, hollowed fresh-air intake valve 1326C can regulate the flow of fresh air for the fresh-air intake pathway by flexing open upon application of a threshold pressure sufficient to crack the valve. In an aspect, hollowed fresh-air intake valve 1326C can prevent the occurrence of exhaled air passing through the smoking media. Furthermore, hollowed freshair intake valve 1326C can flex open based on attainment of low threshold cracking pressure applied to the valve based on a low fan/air blower 502 power employing the fan to pull air into the device system while the smoking media is burning.

[00338] In a non-limiting embodiment, hollowed fresh-air intake valve 1326C can be the hollowed central portion of the valve assembly which removes the need for the valve to be pulled through the valve seat for proper sealing which simplifies the valve cartridge assembly. Furthermore, in a non-limiting embodiment, hollowed fresh-air intake valve 1326C can be mounted onto the fresh-air intake valve seat in order to receive fresh air directly from the fresh-air intake orifice. In another nonlimiting embodiment, hollowed exhale valve 1326B and hollowed fresh-air intake valve 1326C can be connected via an elastomeric column that allows for both valves to be secured in place with a single mechanical component. The need for only a single mechanical component allows for an efficient manufacturing process that implements the two valves into a single component. In another non-limiting embodiment, hollowed exhale valve 1326B and hollowed fresh-air intake valve 1326C can be the same valve in form and structure as hollowed inhale valve 1326A given that they are all single-function valve components and separated by an additional mechanical seat and/or spacing component. In another aspect, FIG. 1300R-16, illustrates hollowed fresh-air intake valve 1326C in the open position thus indicating that the fan/air blower 502 is powered on and the smoking media is burning. Furthermore, when hollowed fresh-air intake valve 1326C is open, then no inhale or exhale pressure is occurring.

[00339] In yet another aspect, fresh-air intake cartridge inlet orifice 1327 is included in device 1300R-16. In an aspect, fresh-air intake cartridge inlet orifice 1327 is an opening that can allow freshair to enter the valve cartridge, pass through vented-holder cartridge exhaust orifice 1330, and enter into the heating tube 412 to supply fresh air to the smoking media tip 1362B to maintain activation (e.g., burning) of the smoking media. In another aspect, fresh-air intake cartridge inlet orifice 1327 can duct fresh-air from the fresh-air intake cartridge inlet orifice 1327 on atrium 104 and into the valve cartridge cavity ensuring maintenance of a threshold suction and preventing a loss of suction. In a non-limiting embodiment, fresh-air intake cartridge inlet orifice 1327 can be an extrusion (cut-out) on the fresh-air intake valve seat 1351C. In another aspect, fresh-air intake cartridge inlet orifice 1327, vented holder cartridge exhaust orifice 1330, and inhale intake cartridge orifice 1332 are orifices external and within the valve cartridge that need to line up with one another in order to complete respective air pathways. As such, when the valve cartridge is removed and reinserted into the atrium cavity all of the orifices line up with corresponding air pathways to ensure a proper and controlled flow throughout the device. [00340] In another aspect, smoking filtration device BOOR- 16 can include vented-holder cartridge exhaust orifice 1330 that is an opening configured to allow the introduction of exhaled and fresh-air into the heating tube cavity and subsequently into the filtration cavity for purification. Furthermore, vented-holder cartridge exhaust orifice 1330 can inhibit fresh-air from being pushed into the non-heatable smoking media which could otherwise (e.g., in the absence of vented-holder cartridge exhaust orifice 1330 ) ruin the taste profile of the smoking media and dislodge the smoking media (e.g., blowing it out of the holding fins). In a non-limiting embodiment, vented-holder cartridge exhaust orifice 1330 can be an extrusion (e.g., cut-out) on the vented holder that is concentric to the vented holder inhale orifice (e.g., an extrusion on the vented holder that partially houses the smoking media and allows inhaled smoke to enter the valve cavity). In another aspect, vented-holder cartridge exhaust orifice 1330 can be a portion of a valve cartridge that is removed and reinserted in the atrium cavity where all of the orifice needs to line up with corresponding air pathways to ensure a proper and controlled flow throughout the device. In yet another aspect, smoking filtration device BOOR- 16 can include inhale intake cartridge orifice 1332 that is an opening that allows inhaled smoking media aerosol to travel from the inhale orifice 927 on vented holder, pass into the inhale cavity, and enter the valve cavity.

[00341] In another aspect, smoking filtration device BOOR- 16 can include cartridge internal exhale orifice 1334 that is an opening configured to allow exhaled smoke to pass from mouthpiece cavity to the valve cavity and through hollowed exhale valve 1326B. In a non-limiting embodiment, cartridge internal exhale orifice 1334 can be an internal orifice within the valve cartridge assembly itself that does not need to align with any pathways adjacent to atrium 104 (e.g., cartridge internal exhale orifice 1334 is static within the cartridge assembly).

[00342] In another aspect, smoking filtration device BOOR- 16 can include inhale valve seat 1351 A, exhale valve seat 135 IB, and fresh-air intake valve seat 1351C configured to interface with hollowed inhale valve 1326A, hollowed exhale valve 1326B, and hollowed fresh-air intake valve 1326C respectively. In a non-limiting embodiment inhale valve seat 1351 A can include a flat and smooth surface against which the surface area of the hollowed inhale valve 1326A can form a seal. In an aspect, inhale valve seat 1351 A can also include a pronged section that acts as a retainer or piston configured to keep the valve under load to generate a seal and threshold cracking pressure required to open the valve. In another aspect, inhale valve seat 1351 A can allow the hollowed inhale valve 1326A to be pushed onto the pronged portion of the inhale valve seat 1351 A as opposed of requiring a pull through mechanism of the stem of a traditional umbrella valve (or other type) which simplifies the assembly. In another aspect, inhale valve seat 1351 A can prevent leakage into the inhale cavity or non-heatable smoking media during occurrence of an exhalation event.

[00343] In yet another aspect, smoking filtration device 1300R-16 can include exhale valve seat 135 IB that can include a flat and smooth surface against which the surface area of the hollowed exhale valve 1326B can form a seal. In another aspect, exhale valve seat 135 IB can also include a pronged section that acts as a retainer or piston configured to keep the valve under load to generate a seal and threshold cracking pressure required to open the valve. In another aspect, exhale valve seat 135 IB can allow the hollowed exhale valve 1326B to be pushed onto the pronged portion of the exhale valve seat 135 IB as opposed of requiring a pull through mechanism of the stem of a traditional umbrella valve (or other type) which simplifies the assembly. In another aspect, exhale valve seat 135 IB prevents the inhalation of exhaled and sidestream smoke from the mouthpiece cavity. In another non-limiting embodiment, smoking filtration device 1300R-16 can include hollowed fresh-air intake valve seat 1351C configured to contain a flat and smooth surface against which the flat surface of hollowed freshair intake valve 1326C can sit to prevent exhaled smoke from leaking through the fresh-air intake orifice on atrium 104. In a non-limiting embodiment, fresh-air intake valve seat 1351C can include a flat plate portion given implementation of a double valve design (e.g., exhale valve and intake valve connected). In other non-limiting embodiments, fresh-air intake valve seat 1351C can be a discrete valve alongside other valves (e.g., three discrete valves altogether), as such fresh-air intake valve seat 1351C can include a prolonged portion in addition to the flat surface portion to accommodate the design of three discrete valves. In another non-limiting embodiment, the external facing side of fresh-air intake valve seat 1351C can act as a user touchpoint for removal of the valve cartridge assembly from the containment portion of the device.

[00344] In yet another aspect, smoking filtration device 1300R-16 can include atmospheric cartridge orifice 1352 that allows inhaled aerosol flow into mouthpiece cavity 320 and into the user's lungs for stimulus. In another aspect, atmospheric cartridge orifice 1352 can allow exhaled smoke to flow into detachable mouthpiece 102 and into the internal exhale orifice, through the vented-holder exhaust orifice and into the heating tube cavity for filtration. In another aspect, atmospheric cartridge orifice 1352 allows for the implementation of a detachable mouthpiece 102 and mouthpiece cavity 320 for both inhale and exhale events. This implementation allowing dual functionality of a single component creates device process efficiencies and creates a simplified and positive user experience. [00345] Turning now to FIG. 13R-18, illustrated is a diagram of an example, non-limiting right side view of smoking filtration device 1300R-18 including the detachable ignition assembly removed from device 1300R-18 (a different view and perspective of devices 100-1300R-17) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00346] In an aspect, smoking filtration device 1300R-18 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-

18 can include igniter interaction cap 720, igniter mounting rail 1328 A, igniter mounting rail 1328B, ignition block bottom threaded receiver 1341, heating element terminal 1308B, smoking media core 1362A, smoking media tip 1362B, and non-heatable smoking media 1362C. As illustrated in FIG. 13R- 18, igniter interaction cap 720 in a non-limiting embodiment includes threading itself to allow for a hand turn based attachment and detachment mechanism. As illustrated in FIG. 13R-18, igniter interaction cap 720 in a non-limiting embodiment includes threading itself to allow for a hand turn based attachment and detachment mechanism. FIG. 13R-18 illustrates a detached igniter interaction cap 720.

[00347] FIG. 13R-19 illustrates a diagram of an example, non-limiting right side view of smoking filtration device BOOR- 19 (a different view and perspective of devices 100- BOOR- 18) including a cross-sectioned view of detachable ignition assembly removed from device BOOR- 19 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00348] In an aspect, smoking filtration device 1300R-19 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device BOOR-

19 can include igniter interaction cap 720, ignition block bottom threaded receiver 1341, heating element terminal 1308B, smoking media core 1362 A, smoking media tip 1362B, and non-heatable smoking media 1362C. As illustrated in FIG. 13R-19, igniter interaction cap 720 in a non-limiting embodiment includes threading itself to allow for a hand turn based attachment and detachment mechanism. As illustrated in FIG. 13R-19, igniter interaction cap 720 in a non-limiting embodiment includes threading itself to allow for a hand turn based attachment and detachment mechanism. FIG. 13R-18 illustrates a detached igniter interaction cap 720. Furthermore, in a non-limiting embodiment, the exterior of the igniter interaction cap 720 can have a knurled surface to facilitate gripping of the cap. In another non-limiting embodiment, igniter interaction cap 720 can include a hinged lever or other type of lever to provide extra mechanical advantage to assist in unthreading and rethreading the igniter subassembly to the ignition block bottom receiver. In FIG. 13R-19, heating element terminal 1308B can include terminals that act as contact pins themselves and are female components.

[00349] Turning now to FIG. 13R-20, illustrated is a diagram of an example, non-limiting right side view of smoking filtration device 1300R-20 (a different view and perspective of devices 1 GO- 1300R- 19) including a cross-sectioned view of detachable ignition assembly fully inserted within device 1300R-20 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00350] In an aspect, smoking filtration device 1300R-20 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-

20 can include igniter interaction cap 720, heating element terminal 1308B, smoking media core 1362 A, smoking media tip 1362B, non-heatable smoking media 1362C, ignition block core 420, and igniter interaction cap 720. In an aspect, smoking filtration device 1300R-20 illustrates the threading of igniter interaction cap 720 as integrated with the ignition block core 420. Furthermore, in the non-limiting embodiment illustrated in FIG. 13R-20 the heating tube 420 can flare around ignition block core 420 rather than inside of the ignition block.

[00351] Turning now to FIG. 13R-21, illustrated is a diagram of an example, non-limiting right side view of smoking filtration device 1300R-21 (a different view and perspective of devices 100- 1300R-20) and a view of detachable ignition assembly fully inserted within device 1300R-21 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00352] In an aspect, smoking filtration device 1300R-21 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-

21 can include igniter interaction cap 720, smoking media core 1362 A, smoking media tip 1362B, non- heatable smoking media 1362C, and ignition block core 420. In an aspect, the external knurling on igniter interaction cap 720 is illustrated in FIG. 13R-21.

[00353] FIG. 13R-22 illustrates a diagram of an example, non-limiting right side view of smoking filtration device 1300R-22 (a different view and perspective of devices 100-1300R-21) with a mouthpiece assembly in the process of insertion into device 1300R-22 and an ignition assembly configured for insertion within the smoking media in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00354] In an aspect, smoking filtration device 1300R-22 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-

22 can include igniter interaction cap 720, atrium 104, heating element terminal 1308B, smoking media core 1362A, smoking media tip 1362B, non-heatable smoking media 1362C. In an aspect, the external knurling on igniter interaction cap 720 is illustrated in FIG. 13R-22. In a non-limiting embodiment, as the smoking media is inserted into the heating tube cavity, heating element terminal 1308B can be configured to directly contact the smoking media tip 1362B. Furthermore, in a non -limiting embodiment, heating element terminal 1308B can directly heat up and ignite the smoking media tip 1362B.

[00355] Turning now to FIG. 13R-23, illustrated is a diagram of an example, non-limiting right side view of smoking filtration device 1300R-23 (a different view and perspective of devices 1 GO- 1300R-22) with a mouthpiece assembly fully inserted into device 1300R-23 and an ignition assembly configured for insertion within the smoking media in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00356] In an aspect, smoking filtration device 1300R-23 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-

23 can include igniter interaction cap 720, heating element terminal 1308B, smoking media core 1362 A, smoking media tip 1362B, and non-heatable smoking media 1362C. In a non-limiting embodiment, the smoking media is inserted completely into the heating tube cavity. As such, in the illustrated nonlimiting embodiment, heating element terminal 1308B directly contacts the smoking media tip 1362B. Furthermore, in a non-limiting embodiment, heating element terminal 1308B can directly heat up and ignite the smoking media tip 1362B. Furthermore, heating element terminal 1308B is nested within the center of smoking media tip 1362B.

[00357] Turning now to FIG. 13R-24, illustrated is a diagram of an example, non-limiting right side view of smoking filtration device components 1300R-24 (a different view and perspective of devices 100-1300R-23) with a threaded igniter interaction cap removed from device 1300R-24 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00358] In an aspect, smoking filtration device 1300R-24 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-

24 can include igniter interaction cap 720, charging/data connector 1303, control PCB 404, igniter mounting rail 1328A, ignition block bottom threaded receiver 1341, heating element terminal 1308B, insulated contact pin A 1310A, igniter cabling A 1306, and igniter cabling B 1308. In a non-limiting embodiment, the igniter interaction cap 720 along with heating element components and ignition system can be inserted into ignition block bottom threaded receiver via a simple and user-friendly hand turning mechanism, smoking media is inserted completely into the heating tube cavity. In an aspect, the assembly has few integrated components and provides easy access to the heating tube cavity and other device components for cleaning, component interchangeability, and/or replacement.

[00359] Turning now to FIG. 13R-25, illustrated is a diagram of an example, non-limiting right side view of smoking filtration device components 1300R-24 (a different view and perspective of devices 100-1300R-24) with a threaded igniter interaction cap inserted into device 1300R-25 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00360] In an aspect, smoking filtration device 1300R-25 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-

25 can include igniter interaction cap 720, charging/data connector 1303, control PCB 404, igniter mounting rail 1328A, ignition block bottom threaded receiver 1341, heating element terminal 1308B, igniter cabling A 1306, and igniter cabling B 1308. In a non-limiting embodiment, the igniter interaction cap 720 along with heating element components and ignition system can be inserted into the ignition block bottom threaded receiver via a simple and user-friendly hand turning mechanism, smoking media is inserted completely into the heating tube cavity. Illustrated in FIG.13R-25 is with full insertion, igniter cabling A 1306 supplies power to the ignition block power terminals and the igniter interaction contact pins to initiate an ignition sequence.

[00361] Turning now to FIG. 13R-26, illustrated is a diagram of an example, non-limiting crosssectioned right-side view of smoking filtration device components 1300R-26 (a different view and perspective of devices 100-1300R-25) with a threaded igniter interaction cap inserted into device 1300R-26 and an interchangeable ignition component in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In an aspect, smoking filtration device 1300R-26 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-26 can include igniter interaction cap 720, charging/data connector 1303, control PCB 404, heating element terminal 1308B, and igniter cabling B 1308.

[00362] Turning now to FIG. 13R-27, illustrated is a diagram of an example, non-limiting rightside view of smoking filtration device components 1300R-27 (a different view and perspective of devices 100-1300R-26) with a threaded igniter interaction cap inserted into device 1300R-27 and illustration of the igniter cables in accordance with one or more embodiments described herein. In an aspect, smoking filtration device 1300R-27 can include other components disclosed herein but not referenced or viewable in the illustration. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In an aspect, smoking filtration device 1300R-27 can include igniter interaction cap 720, charging/data connector 1303, control PCB 404, insulated contact pin A 1310A, igniter cabling A 1306, heating element terminal 1308B, and igniter cabling B 1308.

[00363] Turning now to FIG. 13R-28, illustrated is a diagram of an example, non-limiting front view of smoking filtration device components 1300R-28 (a different view and perspective of devices 100-1300R-27) with a threaded igniter interaction cap inserted into device 1300R-28 and illustration of the igniter cables in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In an aspect, smoking filtration device 1300R-28 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-28 can include igniter interaction cap 720, control PCB 404, igniter cabling A 1306, and igniter cabling B 1308.

[00364] Turning now to FIG. 13R-29, illustrated is a diagram of an example, non-limiting leftside view of smoking filtration device components 1300R-29 (a different view and perspective of devices 100-1300R-28) with a threaded igniter interaction cap inserted into device components 1300R- 29 and illustration of the igniter cables in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In an aspect, smoking filtration device 1300R-29 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-29 can include igniter interaction cap 720, charging/data connector 1303, insulated contact pin B 1310B, control PCB 404, igniter cabling A 1306, and igniter cabling B 1308.

[00365] Turning now to FIG. 13R-30, illustrated is a diagram of an example, non-limiting angled perspective view of smoking filtration device components 1300R-30 (a different view and perspective of devices 100-1300R-29) with a threaded igniter interaction cap fully inserted into device 1300R-30 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In an aspect, smoking filtration device components 1300R-30 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-30 can include igniter interaction cap 720.

[00366] Turning now to FIG. 13R-31 illustrates a diagram of an example, non-limiting angled perspective view of smoking filtration device 1300R-31 (a different view and perspective of devices 100-1300R-30) with a threaded igniter interaction cap fully removed from device 1300R-31 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In an aspect, smoking filtration device components 1300R-31 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-31 can include updated igniter mounting 912, igniter interaction cap 720, ignition block bottom threaded receiver 1341. In an aspect, FIG. 13R-31 illustrates the interaction between the threading of igniter interaction cap 720 and the threading on ignition block bottom threaded receiver 1341 to create a turn screw mechanism to remove igniter interaction cap 720. Furthermore, the illustration demonstrates the ease with which a user can access ignition components and the inner heating tube cavity by unscrewing igniter interaction cap 720 by hand. In another embodiment, igniter interaction cap 720 can contain an embedded hinged thumb-screw which provides better leverage to rotate the igniter sub-assembly out of its locked position, removing the need to have any visible knurling shown.

[00367] Turning now to FIG. 13R-32, illustrated is a diagram of an example, non-limiting partially cross-sectioned and angled perspective view of smoking filtration device 1300R-32 (a different view and perspective of devices 100-1300R-31) with a threaded igniter interaction cap fully removed from device 1300R-32 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. [00368] In an aspect, smoking filtration device components 1300R-32 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-32 can include updated igniter mounting 912, heating tube 412, igniter interaction cap 720, igniter mounting lead-in 1312, ignition block bottom threaded receiver 1341, and ignition block top receiver 418. In an aspect, FIG. 13R-32 illustrates the interaction between the threading of igniter interaction cap 720 and the threading on ignition block bottom threaded receiver 1341 to create a turn screw mechanism to remove igniter interaction cap 720. In another embodiment, the threading can be replaced with another interlocking feature set that allows for less rotation and for the ignition block/igniter sub-assembly to be less thick due to the removal of the circumferential threading. Furthermore, the illustration demonstrates the ease with which a user can access ignition components and the inner heating tube cavity by unscrewing igniter interaction cap 720 by hand. Furthermore, the illustration illustrates upon removal of igniter interaction cap 720, the ease of access to heating tube 412 and its inner cavity.

[00369] Turning now to FIG. 13R-33, illustrated is a diagram of an example, non-limiting fully cross-sectioned and angled perspective view of smoking filtration device 1300R-33 (a different view and perspective of devices 100-1300R-32) with a threaded igniter interaction cap fully removed from device 1300R-33 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00370] In an aspect, smoking filtration device components 1300R-33 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-33 can include updated igniter mounting 912, heating tube 412, and igniter interaction cap 720. In an aspect, FIG. 13R-33 illustrates a non-limiting embodiment of the slide integration of updated igniter mounting with the inside surface of the ignition core.

[00371] Turning now to FIG. 13R-34, illustrated is a diagram of an example, non-limiting fully cross-sectioned and angled perspective view of smoking filtration device 1300R-34 (a different view and perspective of devices 100-1300R-33) with a threaded igniter interaction cap fully inserted into device 1300R-34 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In an aspect, smoking filtration device components 1300R-34 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-34 can include updated igniter mounting 912 and igniter interaction cap 720. In an aspect, FIG. 13R-34 illustrates a fully inserted igniter interaction cap 720 with the heating element engaging the smoking media item and ignition assembly circumscribing the smoking media item.

[00372] Turning now to FIG. 13R-36, illustrated is a diagram of an example, non-limiting fully cross-sectioned and angled perspective view of smoking filtration device 1300R-36 (a different view and perspective of devices 100-1300R-35) with a threaded igniter interaction cap fully inserted into device 1300R-36 and removal of detachable mouthpiece in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00373] In an aspect, smoking filtration device components 1300R-36 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-36 can include heating tube 412, updated igniter mounting 912 and igniter interaction cap 720. In an aspect, FIG. 13R-36 illustrates a fully inserted igniter interaction cap 720 with the heating element engaging the smoking media item and ignition assembly circumscribing the smoking media item. Furthermore, the filter component is cross sectioned to demonstrate the compartmentalization of filter chambers and discrete nature of filtration materials within the filter assembly. In another aspect, detachable mouthpiece 102 and atrium 104 are removed from the device thus illustrating the integration of other device components regardless of removal of another device component.

[00374] Turning now to FIG. 13R-37, illustrated is a diagram of an example, non-limiting fully cross-sectioned and angled perspective view of smoking filtration device 1300R-37 with a valve cartridge assembly within the atrium in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00375] In an aspect, smoking filtration device components 1300R-37 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-37 (a different view and perspective of devices 100-1300R-36) can include heating tube 412, igniter interaction cap 720, fresh-air intake cartridge inlet orifice 1327, vented-holder cartridge exhaust orifice 1330, inhale intake cartridge orifice 1332, cartridge internal exhale orifice 1334, inhale valve seat 1351 A, exhale valve seat 135 IB, and fresh-air intake valve seat 1351C.

[00376] In an aspect, FIG. 13R-37 illustrates the valve assembly cartridge insertion within atrium 104. In an aspect, the valve assembly cartridge includes an array of valves and valve seats configured to enable the operation of various air pathways (e.g., inhale air pathway, exhale air pathway, fresh air pathway) throughout device 1300R-37. In an aspect, the valve cartridge is a fully interchangeable component that can be removed from atrium 104 inner cavity and replaced with a new cartridge. Accordingly, if a valve is damaged or residue, debris, tar, or other materials accumulate within the valve assembly cartridge, then the entire cartridge can be removed and replaced. As such, the valve assembly cartridge provides access to the valve array and provides a solution to improve the lifespan and proper functioning of the device over time. In an aspect, valves are device components typically inaccessible to users, however, device 1300R-37 is intentionally configured to allow users to easily access the valve array and optionally replace such portion of the device. In another aspect, the valve assembly cartridge, once in place aligns orifices within the cartridge (e.g., openings on the external surfaces of the cartridge) with respective orifices external to the cartridge.

[00377] Turning now to FIG. 13R-38, illustrated is a diagram of an example, non-limiting crosssectioned view of the front of smoking filtration device 1300R-38 (a different view and perspective of devices 100-1300R-37) during insertion into the heating tube in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00378] In an aspect, smoking filtration device components 1300R-38 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-38 can include detachable mouthpiece 102, atrium 104, heating tube 412, and UI plate 921. FIG. 13R-38 illustrates the smoking media item insertion into heating tube 412 cavity and further illustrates the alignment of the smoking media item that occurs as the smoking media item enters the heating tube cavity.

[00379] Turning now to FIG. 13R-39, illustrated is a diagram of an example, non-limiting crosssectioned view of the front of smoking filtration device 1300R-39 (a different view and perspective of devices 100-1300R-38) while fully inserted into the heating tube in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00380] In an aspect, smoking filtration device components 1300R-39 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-39 can include detachable mouthpiece 102, atrium 104, smoking media core 1362A, smoking media tip 1362B, non-heatable smoking media 1362C, vented holder 956, and vented holder seal 1379B. FIG. 13R-39 illustrates the seal formed upon smoking media item full insertion into heating tube 412. In an aspect, smoking filtration device components 1300R-39 can include vented holder seal 1379B that is an elastomeric O-ring or gasket that ensures the vented holder 956 forms a tight seal with either the top tube receiver component, or the flared top tube receiver (in a non-limiting embodiment in which the top tube receiver is incorporated into the heating tube 412). In another aspect, vented holder seal 1379B can prevent leakage from around the top end of the heating tube.

[00381] Turning now to FIG. 13R-40, illustrated is a diagram of an example, non-limiting side profile view of ignition system 1300R-40 (a different view and perspective of devices 100-1300R-39) with heating element in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00382] In an aspect, ignition system 1300R-40 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, ignition system 1300R-40 can include updated igniter mounting 912, igniter interaction cap 720, heating element arch 1304C, igniter mounting rail A 1328A, and igniter mounting rail B 1328B. The illustration shows a non-limiting embodiment of a heating element arch 1304C and igniter mounting rail A and igniter mounting rail B. In other nonlimiting embodiments, the heating element can be a different type and/or style. Furthermore, the heating element can be interchanged with another type of heating element given the removability and interchangeability of the ignition interaction cap 720.

[00383] Turning now to FIG. 13R-41, illustrated is a diagram of an example, non-limiting crosssectioned view of ignition system 1300R-41 (a different view and perspective of devices 100-1300R-40) with heating element that is an igniter interaction cap in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00384] In an aspect, ignition system 1300R-41 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, ignition system 1300R-41 can include igniter fixture component 716, updated igniter mounting 912, igniter interaction cap 720, heating element slope A 1304 A, heating element slope B, heating element bend A 1305 A, heating element bend B 1305B, heating element arch 1304C, heating element terminal A 1308 A, heating element terminal B 1308B, igniter mounting lead-in 1312. In an aspect, heating element bend A 1305A and/or heating element bend B 1305B are bended portions of the heating element that allows the heating element terminal A 1308 A and heating element terminal B 1308B respectively to thread through the igniter mounting hole A and igniter mounting hole B. As such, the heating element is securely situated within the ignition block. In another aspect, heating element bend A 1305A and/or heating element bend B 1305B can allow the heating element to remain fixed in place and counteract some of the force applied from the smoking media tip. In another aspect, heating element bend A 1305A and heating element bend B 1305B are sections of the heating element, however, both components do not heat up. In an aspect, FIG. 1300R-41 illustrates the secure nature of the heating element within updated igniter mounting 912.

[00385] Turning now to FIG. 13R-42, illustrated is a diagram of an example, non-limiting top view of the front of ignition system 1300R-42 (a different view and perspective of devices 100-1300R- 41) with heating element that is an igniter interaction cap in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00386] In an aspect, ignition system 1300R-42 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, ignition system 1300R-42 can include heating element arch 1304C, ignition block top receiver 418, ignition block core 420, igniter mounting rail A 1328A, and igniter mounting rail B 1328B. In an aspect, FIG. 1300R-42 illustrates the interaction between various components of the heating element and the respective locations within igniter interaction cap 720 where such components can be situated in a non-limiting embodiment.

[00387] Turning now to FIG. 13R-43, illustrated is a diagram of an example, non-limiting crosssectioned view of the front of smoking filtration device 1300R-43 (a different view and perspective of devices 100-1300R-42) with valve cartridge assembly within the atrium in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00388] In an aspect, smoking filtration device 1300R-43 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R- 43 can include igniter interaction cap 720, heating element slope A 1304 A, heating element slope B 1304B, heating element arch 1304C, silicone gasket fin 726, and exhale valve seat 135 IB. In an aspect, FIG. 1300R-43 illustrates the position of the detachable valve assembly cartridge with respect to other components of device 13R-43. Furthermore, the cross-sectional view of the valve assembly cartridge illustrates the nature of the valve seat in a non-limiting embodiment and its position within the valve assembly cartridge. In another aspect, the cross-sectional view of smoking filtration device 1300R-43 illustrates the mechanism of silicone gasket fin 726 and the seal such gasket creates against the smoking media via a flexible holding capability.

[00389] Turning now to FIG. 13R-44, illustrated is a diagram of an example, non-limiting crosssectioned, angled, view of smoking filtration device 1300R-44 (a different view and perspective of devices 100-1300R-43) with valve cartridge assembly within the atrium in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00390] In an aspect, smoking filtration device 1300R-44 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R- 44 can include detachable mouthpiece 102, heating element slope A 1304 A, heating element slope B 1304B, silicone gasket fin 726, smoking media core 1362A, smoking media tip 1362B, non-heatable smoking media 1362C, and exhale valve seat 135 IB. In an aspect, FIG. 1300R-44 illustrates the position of the detachable valve assembly cartridge within atrium 104 and with respect to other components of smoking filtration device 1300R-44. Furthermore, the cross-sectional view of the valve assembly cartridge illustrates the nature of the valve seat in a non-limiting embodiment and its position within the valve assembly cartridge. In another aspect, the cross-sectional view of smoking filtration device 1300R-44 illustrates the mechanism of silicone gasket fin 726 and the seal such gasket creates against the smoking media via a flexible holding capability.

[00391] Turning now to FIG. 13R-52, illustrated is a diagram of an example, non-limiting angled, internal view of smoking filtration device 1300R-52 (a different view and perspective of devices 100- 1300R-51) with ignition system and removal of the detachable mouthpiece with smoking media item in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In an aspect, smoking filtration device 1300R-52 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-52 can include updated igniter mounting 912 and igniter interaction cap 720. In the illustration, smoking media is partially inserted into the heating tube cavity and the ignition system is fully inserted into device 13R-52.

[00392] Turning now to FIG. 13R-53, illustrated is a diagram of an example, non-limiting angled, internal view of smoking filtration device 1300R-53 (a different view and perspective of devices 100- 1300R-52) with ignition system and partial insertion of the detachable mouthpiece with smoking media item in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In an aspect, smoking filtration device 1300R-53 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R-53 can include smoking media tip 1362B, updated igniter mounting 912 and igniter interaction cap 720. In the illustration, smoking media is partially inserted into the heating tube cavity and the ignition system is fully inserted into device 13R-53.

[00393]

[00394] Turning now to FIG. 13R-54, illustrated is a diagram of an example, non-limiting angled, internal view of smoking filtration device 1300R-54 (a different view and perspective of devices 100- 1300R-53) with ignition system and full insertion of the detachable mouthpiece with smoking media item in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00395] In an aspect, smoking filtration device 1300R-54 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1300R- 54 can include updated igniter mounting 912, igniter interaction cap 720, smoking media core 1362 A, smoking media tip 1362B, non-heatable smoking media 1362C, and igniter mounting ash reservoir 1353. In the illustration, smoking media is fully inserted into the heating tube cavity and the ignition system is fully inserted into device 13R-54. In a non-limiting embodiment, igniter mounting ash reservoir 1353 can be an extrusion on the igniter opposite to the igniter mounting or igniter block leakpath which provides an empty cavity space configured to collect residue (e.g., ash, paper, loose smoking media bits, etc.). In an aspect, igniter mounting ash reservoir 1353 can prevent the buildup of residue from blocking the center of the heating element which ensures a more reliable heating element ignition. [00396] In a non-limiting embodiment, igniter mounting ash reservoir 1353 can be an extrusion on the igniter mounting located on the opposite side of the igniter mounting and the ignition block leakpath. In yet another non-limiting embodiment, igniter mounting ash reservoir 1353 can be an extrusion on the igniter mounting.

[00397] Turning now to FIG. 14A, illustrated is a diagram of an example, non-limiting perspective view of electronics subframe component 1400 A (a different view and perspective of devices 100-1300R-62) without the battery in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00398] In an aspect, electronics subframe component 1400 A can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, electronics subframe component 1400A can include haptic feedback motor 934, electronics subframe exhaust orifice 916, filter outlet connector 932A, electronics subframe battery cage 972, filter outlet connector cavity 1328, device exhaust cavity 116, electronics subframe 918, and electronics subframe battery cavity 1406. In a non-limiting embodiment, electronics subframe component 1400 A can include haptic feedback motor 934 configured to communicate device statuses to the end user via vibrations that transfer through the device unibody 110.

[00399] In an aspect, electronics subframe component 1400 A can employ haptic feedback motor 934 to communicate when device has turned on, when ignition has started, when the smoking media is complete, when the filter has reached the end of life, when the battery is low and other statuses. In an aspect, haptic feedback motor 934 can communicate device statuses via tactile indicators (e.g., vibrations, pulses, etc.). In non-limiting embodiments, haptic feedback motor 934 can be implemented without a display LED device implementation or with a display LED device implementation in other embodiments. In another aspect, haptic feedback motor 934 can be mounted onto the electronics subframe 918 and connect to the haptic motor driving connectors pins on the control PCB 404.

[00400] In another non-limiting embodiment, electronics subframe battery cavity 1406 can be a structural cavity that allows battery 708 to be inserted into the electronics subframe 918. In another aspect, electronics subframe battery cavity 1406 can be a hollow portion of the electronics subframe 918 configured to seat battery 708. In an aspect, FIG. 14A illustrates the electronics subframe 918 and other device components in isolation thus providing perspective on the interaction of the electronics subsystem of the device with other device subsystems (e.g., filter, ignition, heating chamber, mouthpiece, etc.).

[00401] Turning now to FIG. 14B, illustrated is a diagram of an example, non-limiting perspective view of electronics subframe component 1400B (a different view and perspective of devices 100- 1400 A) without the control PCB and with the inserted battery in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. [00402] In an aspect, electronics subframe component 1400B can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, electronics subframe component 1400B can include filter outlet connector 932A, electronics subframe battery cavity 1406, and battery 708. In a non-limiting embodiment, electronics subframe component 1400B can include haptic feedback motor 934 configured to communicate device statuses to the end user via vibrations that transfer through the device unibody 110. In an aspect, FIG. 14B illustrates the integration of battery 708 within electronic subframe battery cavity 1406. For instance, battery 708 can be easily inserted, removed, recharged, and/or replaced based on removal of the UI plate.

[00403] Turning now to FIG. 14C, illustrated is a diagram of an example, non-limiting perspective view of electronics subframe component 1400C (a different view and perspective of devices 100-1400B) with the UI plate in accordance with one or more embodiments described herein.

Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00404] In an aspect, electronics subframe component 1400C can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, electronics subframe component 1400C can include LED indicator 2 308, LED indicator 1 310, interaction button 312, interaction button 312, control PCB 408, control PCB fixture component A, control PCB fixture component B, and UI plate 921. In an aspect, FIG. 14B illustrates the UI plate 921 configured to sit atop of the cover plate and electronics subframe 918. As such UI plate 921 protects the UI PCB from damage from impacts and scratches. Furthermore, UI plate 921 allows for the interchangeability and customization of the UI interface.

[00405] In another aspect, electronics subframe component 1400C can include control PCB fixture component A 1414A and control PCB fixture component B 1414B configured to attach control PCB 404 to electronics subframe 918. In an aspect, control PCB fixture component A 1414A and control PCB fixture component B 1414B prevents control PCB 404 from moving around in relation to electronics subframe 918. As such, absent the fixture components the control PCB 404 could itself disrupt the electrical signals provisioned by control PCB 404. In another aspect, control PCB fixture component A 1414A and control PCB fixture component B 1414B can be holes (e.g., two holes) on control PCB 404 that allow the fixture components to secure control PCB 404 to electronics subframe 918. In the illustrated non-limiting embodiment, control PCB is fixed to electronics subframe battery cage 1406. In other non-limiting embodiments, control PCB fixture component A 1414A and control PCB fixture component B 1414B can be fixed at other locations or positions on electronics subframe 918.

[00406] Turning now to FIG. 14D, illustrated is a diagram of an example, non-limiting perspective view of electronics subframe component MOOD (a different view and perspective of devices 100-1400C) without the UI plate in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00407] In an aspect, electronics subframe component MOOD can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, electronics subframe component MOOD can include interaction button 312, control PCB 404, LED indicator 1 lightpipe 1420, LED indicator 2 light-pipe 1422, UI PCB 1424, and UI PCB connector 1426. In an aspect, LED indicator 1 light-pipe 1420 and LED indicator 2 light-pipe 1422 can be LED lights comprising refractive translucent/transparent material that allows the light emitted from the LED Indicator 1 to glow softly based on light refraction mechanisms as compared to light shining from a direct beam. Furthermore, LED indicator 1 light-pipe 1420 and LED indicator 2 light-pipe 1422 can allow for the LED indicator light to be seen at more angle, ensuring a user can clearly see the device status from a range of viewing angles. In another aspect, LED indicator 1 light-pipe 1420 and LED indicator 2 lightpipe 1422 can provide weather or water proofing to the electronics area and protect the device from spills impacting the top of the device given that the LED bulb obstructs gaps in the UI plate 921. In an aspect, LED indicator 1 light-pipe 1420 and LED indicator 2 light-pipe 1422 can be positioned above the LED Indicator 1 and LED indicator 2 respectively and can be positioned within an extrusion (cutout) on UI plate 921.

[00408] Furthermore, in a non -limiting embodiment, electronics subframe component MOOD can include UI PCB 1424 that is a circuit board configured to receive communication status information from control PCB 404 for display via LED indicator 1 light-pipe 1420 and LED indicator 2 light-pipe 1422 respectively. Also, device interaction and operational information can trigger the control board to manage various functions such as determining battery life, filter life, consumption statistics (e.g., start time, stop time, pressures applied, etc.), powering on and off the device, pairing the device (e.g., using Bluetooth protocols), determining heat status of the smoking media item, determining the life of the valve assembly cartridge and other such insights. [00409] In another aspect, UI PCB 1424 can allow the device to communicate with the user by provisioning information and retrieving information. In various non-limiting embodiments, UI PCB 1424 can allow the user interface to be situated at various locations of the device. Furthermore, UI PCB 1424 can be removed from control PCB 404 which provides flexibility to the device configurability and manufacturing assembly processes. In another aspect, UI PCB 1424 can have the surface mount components (e.g., LEDs, button and connector), and sit between the UI plate 921 and electronics subframe 918. In the illustrated non-limiting embodiment, UI PCB 1424 is illustrated as a single UI PCB that handles all device communication. In other non-limiting embodiments, more than one UI PCB 1424 may separate out temporary device status' (e.g., whether the igniter is on, device is on, or fan is on) and the interaction button communication to a separate discrete UI PCB, and another UI PCB to communicate more permanent/static device status' (e.g., other filter information, battery information, or general error information).

[00410] In yet another non-limiting embodiment, UI PCB 1424 can be depicted as two LEDs mounted for visual communication. In other non-limiting embodiments, UI PCB 1424 can include more than two LEDs, or a digital display (e.g., a display screen). In other non-limiting embodiments, UI PCB 1424 can replace the button with a capacitive touch screen, toggle switch, fingerprint sensor, motion sensor, pressure sensor or other type of interaction component. In another aspect, UI PCB connector 1426 can include a connector that connects UI PCB connector 1426 and control PCB's 404 so that power and data can be sent to the UI PCB 1426 in the case of communication, and data to be sent from UI PCB 1426 in the case of user interaction with the button. In another aspect, UI PCB connector 1426 can provide flexibility in the routing of electrical cabling required to connect UI PCB connector 1426 to control PCB 404. In another aspect, UI PCB connector 1426 can be a surface mount component on the UI PCB 1424.

[00411] Turning now to FIG. 14E, illustrated is a diagram of an example, non-limiting right side view of electronics subframe component 1400E (a different view and perspective of devices 100- 1400D)without the UI plate in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00412] In an aspect, electronics subframe component 1400E can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, electronics subframe component 1400E can include filter detent 710, control PCB 408, filter outlet connector 932A, electronic subframe fixture component 1202, electronics subframe 918, control PCB fixture component A, control PCB fixture component 1414B, UI plate 921, filter outlet connector mounting A 1436, electronic subframe mounting 1438, and electronics subframe ducting 1593. In an aspect, filter outlet connector mount A 1436 can be a mounting that allows the filter outlet connector 932A to secure to electronics subframe 918. In another aspect, filter outlet connector mount A 1436 prevents a leak between filter outlet connector cavity and the inlet portion of fan/air blower 502. In the illustrated nonlimiting embodiment, the filter outlet connector mount A 1436 is depicted as a separate discrete component. In other non-limiting embodiments, filter outlet connector mount A 1436 can be a molded feature of the electronic subframe 918 itself.

[00413] In yet another aspect, electronics subframe mounting 1438 can be a section of electronics subframe 918 that allows the electronics subframe 918 to be securely mounted to the device unibody 110. Furthermore, electronics subframe mounting 1438 can prevent electronics subframe 918 and attached components from becoming damaged due to rattling or movement of loose components. In another aspect, electronics subframe mounting 1438 can be a feature on electronics subframe 918 itself. In a non-limiting embodiment, electronics subframe ducting 1593 can be a hollow cavity section of electronics subframe 918 that routes exhausted filtered air from filter outlet connector 932A into the air blower inlet. As such, electronics subframe ducting 1593 can ensure no loss of suction occurs to ensure the air blower can open the fresh-air intake valve even in the event the filter is clogged with filtered particulate. In an aspect, electronics subframe ducting 1593 can be a feature on the electronics subframe itself.

[00414] Turning now to FIG. 14F, illustrated is a diagram of an example, non-limiting backside view of electronics subframe component 1400F (a different view and perspective of devices 100-1400E) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00415] In an aspect, electronics subframe component 1400F can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, electronics subframe component 1400F can include haptic feedback motor 934, filter outlet connector 932A, filter outlet connector cavity 1328, device exhaust cavity 116, and UI plate 921. In an aspect, the illustrated view of electronics subframe component 1400F in FIG. 14F illustrates a perspective view of respective components and its relative situation to other components of electronics subframe component 1400F in a non-limiting embodiment. [00416] Turning now to FIG. 14G, illustrated is a diagram of an example, non-limiting left side view of electronics subframe component 1400G (a different view and perspective of devices 100-1400F) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In an aspect, electronics subframe component 1400G can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, electronics subframe component 1400G can include fan/air-blower 502, filter outlet connector 932A, UI plate 921, and electronics subframe 918. In an aspect, the illustrated view of electronics subframe component 1400G in FIG. 14G illustrates a perspective view of respective components and its relative situation to other components of electronics subframe component 1400G in a non-limiting embodiment.

[00417] Turning now to FIG. 14H, illustrated is a diagram of an example, non-limiting angled view of electronics subframe component 1400H (a different view and perspective of devices 100- 1400G) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00418] In an aspect, electronics subframe component 1400H can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, electronics subframe component 1400H can include fan/air-blower 502, haptic feedback motor 934, electronics subframe exhaust orifice 916, filter outlet connector 932A, filter outlet connector cavity 1328, device exhaust cavity 1402, UI PCB 1424, UI plate 921, charging/data connector 1303, electronics subframe mounting 1438, filter outlet connector mounting B 1454, and electronics subframe 918. In an aspect, the illustrated view of electronics subframe component 1400H in FIG. 14H illustrates a perspective view of respective components and its relative situation to other components of electronics subframe component 1400H and other subsystems of smoking filtration devices disclosed herein.

[00419] Turning now to FIG. 15 A, illustrated is a diagram of an example, non-limiting crosssectioned, closeup internal view of smoking filtration device 1500A (a different view and perspective of devices 100-1400H) with the valve cartridge assembly inserted in the atrium in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00420] In an aspect, smoking filtration device 1500A can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, smoking filtration device 1500A can include valve cartridge sub-assembly 1381, inhale valve seat 1351A, exhale valve seat 135 IB, fresh-air intake valve seat 1351C, valve cartridge gasket 1386, and atrium receiving cavity 1387. [00421] In a non-limiting embodiment, valve cartridge assembly 1381 can comprise a replaceable valve system that regulates the various flows of air and smoke through the system, mates with all the relevant surfaces of the atrium 104 cavity to ensure a seal is formed and respective airflow or smoke flow moves along proper pathways.

[00422] In another aspect, valve cartridge assembly 1381 can be a molded canister structure that houses the valves utilized by the device to govern the flow of air through air pathways. The valve cartridge assembly 1381 eliminates the need to replace individual valves or dispose of the device if valves malfunction. Instead, the entire valve cartridge assembly 1381 can be easily replaced by insertion into atrium cavity 104. This solves problems associated with replacing individual valves which risk mis-seating of valves, accumulation of residue (e.g., tar/oil/moisture) on a user’s hands/fingers resulting from changing dirty valves. Furthermore, valve cartridge assembly 1381 can simplify the valve replacement process by requiring a single assembly that easily slides in and out of the atrium cavity 104. Furthermore, in an aspect, valve cartridge assembly 1381 prevents the undesirable continued use of valves that accumulate residue in the valve cavities from repeated use. Such repeated use can result in a change in flavor for the user as well as causing the valves to stick to the valve seats resulting in a high cracking pressure which therefore imposes extra strain on a user during inhaling/exhaling events. In another aspect, valve cartridge assembly 1381 replacement can ensure the user experiences a satisfying flavor (e.g., most synonymous with their typical smoking media taste) and ensure a favorable inhale/exhale experience.

[00423] In another aspect, valve cartridge assembly 1381 can be comprised of inhale valve seat 702, exhale valve seat 704, fresh-air intake valve seat 706, and a surrounding elastomeric gasket. In a non-limiting embodiment, the mechanical components of valve cartridge assembly 1381 can be fused together via a manufacturing process (e.g., heat staking, ultra-sonic welding, etc.). In an aspect, the elastomeric gasket can be adhered to the outside of the fused together components by means of over molding, sealant paste (glue) or other method of attaching elastomeric to plastic. In the illustrated nonlimiting embodiment, the mechanical components of valve cartridge assembly 1381 are fused together. In other non-limiting embodiments, the three or more mechanical components of valve cartridge assembly 1381 are fastened in place via a fixture component (e.g., a screw) that compresses the mechanical components against one another. In a non-limiting embodiment, the elastomeric gasket can be depicted as a single grid-shaped component that is over-molded on the fused mechanical components. In other non-limiting embodiments, the gasket can be separated into three or more single O-ring gaskets. In another embodiment, this cartridge can have a molded external feature to provide added grip for the user to perform lateral movements, and to cover the external orifice of the atrium cavity.

[00424] In an aspect, device 1500A can include inhale valve seat 1351A where this view is depicting the outside of the inhale valve seat 1351 A which also acts as the internally facing (atrium 104 cavity facing) endcap of the fused mechanical components. In an aspect, the internally facing side of the inhale valve seat 1351 A contains the inhale valve orifice which allows inhaled smoke to flow into the detachable mouthpiece 102 for consumption. In another aspect, device 1500A can include exhale valve seat 135 IB which can be configured as the core of the cartridge to which the inhale valve seat 1351 A and fresh-air intake valve seats 1351C fuse onto as endcaps.

[00425] In another aspect, device 1500A can comprise valve cartridge gasket 1386 that is a gasket configured to ensure that respective flows of smoke and orifices are isolated to or compartmentalized within the proper channels to ensure attainment of the correct directional flow, even as the cartridge is removed and reinserted into the atrium receiving cavity. Furthermore, in an aspect, valve cartridge gasket 1386 can separate the fresh-air intake cartridge inlet orifice 1327, vented-holder cartridge exhaust orifice 1330, inhale intake cartridge orifice 1332, and atmospheric cartridge orifice 1352 into four distinct flow pathways for air and/or smoke to travel. In a non-limiting embodiment, valve cartridge gasket 1386 can be adhered to the fused valve seats. In another non-limiting embodiment, the valve cartridge gasket 1386 can be a single grid-shaped component that is over molded on the fused mechanical components. In other non-limiting embodiments, valve cartridge gasket 1386 can be separated into three or more single O-ring gaskets to be able to use more commercially available components.

[00426] In another aspect, device 1500A can comprise atrium receiving cavity 1387 configured as an internal cavity space within atrium 104 that allows the valve cartridge to slot into the correct position within the atrium 104. Furthermore, in an aspect, atrium receiving cavity 1387 can allow for the valve cartridge sub-assembly 1381 to effortlessly slot into the female atrium receiving cavity. In another aspect, atrium receiving cavity 1387 can contain keying features that ensure the valve cartridge inserts into the correct rotational position and orientation relative to the atrium receiving cavity 1387 such that respective seals can engage and the flows of air/smoke are properly managed. In another non-limiting embodiment, atrium receiving cavity 1387 can contain a spring-loaded plunger which provides additional feedback (e.g., tactile feedback) to the user to ensure the cartridge sub-assembly 1381 is correctly inserted into atrium receiving cavity 1387. As such, while applying the required threshold force to ensure the elastomeric cartridge gasket 1386 is correctly inserted and engaged on all surfaces. In an aspect, the spring loaded plunger can also eject the valve cartridge at the point the user seeks to replace the subassembly.

[00427] In another non-limiting embodiment, the atrium 104 can be configured with airflow sensors and/or pressure sensors to sense the volume and rate of inhalation within the inhale cavity and/or exhale cavity of atrium 104. In another aspect, the sensors can also facilitate the delivery of a premeasured volume or dose (e.g., for smoking of herbal ingredients) to the user based on a desired stimulus capacity. Accordingly, the sensors can detect if there is any loss of lung suction due to prolonged smoking for health reporting. In another aspect, the exhale sensor(s) can detect the volume and rate of exhale to make the previous inhaler confident the inhaled smoke is fully expelled into the device to achieve complete fume mitigation. Accordingly, this assurance can ensure that even if multiple people with varying lung capacities use the device, all people can feel confident the entirety of the inhaled smoke was expelled into the device and they can respectively stop exhaling at the moment of full expulsion of smoke. Furthermore, such exhale technical capability can detect the loss of lung exhale pressure based on prolonged smoking for health reporting.

[00428] Turning now to FIG. 15B, illustrated is a diagram of an example, non-limiting crosssectioned view of smoking filtration device 1500B (a different view and perspective of devices 100- 1500A) with the valve cartridge assembly and atrium subassembly removed in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00429] In an aspect, smoking filtration device 1500B can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, smoking filtration device 1500B can include detachable mouthpiece 102, valve cartridge subassembly 1381, inhale valve seat 1351 A, exhale valve seat 135 IB, fresh-air intake valve seat 1351C, valve cartridge gasket 1386, vented holder inhale cavity 1388 and atrium receiving cavity 1387.

[00430] In a non-limiting embodiment, vented holder inhale cavity 1388 can be a cavity structure that allows the non-heatable smoking media to release heated aerosol produced from smoking media tip to enter the atrium inhale cavity through the inhale valve 729A and into mouthpiece cavity 320 via the atmospheric orifice 1352. In an aspect, vented holder inhale cavity 1388 can reduce turbulence of aerosol exiting the non-heatable smoking media to create a laminar flow that is perceived as smoother on the lungs. In an aspect, vented holder inhale cavity 1388 can be a cavity within the cylindrical portion of the vented holder, and thus the cavity of the silicone gasket (e.g., smoking media gasket).

[00431] In another non-limiting embodiment, the vented holder can include an extrusion (cut-out) in the cylindrical portion of vented holder, and subsequently the silicone gasket (e.g., smoking media gasket) so that a scanning sensor can be installed. In an aspect, the scanning sensor can employ optical character recognition, magnetic strip detection, infrared detection, Near-Field Communication (NFC) tag detection, high frequency antenna detection or other forms of detection and capable of communicating with a tag, barcode, RFID or other type unique identifier that can be implanted or placed on the exterior face of the non-heatable smoking media. As such, device 1500B can recognize the make and model of the specific commercially available smoking media within device 1500B for authentication.

[00432] Accordingly, device 1500B would not allow counterfeit smoking media to be consumed. Furthermore, such technology can enhance the experience in that if the non-heatable smoking media of that specific smoking media is longer or shorter than the standard, the heat sensor algorithm can calibrate the temperature threshold accordingly, so that the maximum amount of smoking media can be consumed prior to reaching the boundary between the non-heatable smoking media and the smoking media tip. In a non-limiting embodiment, the non-heatable smoking media can contain any readable code such as RFID, barcode, other type of tag either on the surface or embedded within the non-heatable smoking media and capable of being read (e.g., to identify an attribute associated with the smoking media). In another aspect, FIG. 15B illustrates the detachable nature of atrium 104 from the heating tube 412. Furthermore, valve cartridge assembly 1381 can remain engaged in the atrium receiving cavity 1387 until removed. Accordingly, FIG. 15B illustrates the configurability, interchangeability, and existence of the ease of replacing key components of the device given the structural configuration (and removability) of each respective sub-system including the valve cartridge sub-system.

[00433] Turning now to FIG. 15C, illustrated is a diagram of an example, non-limiting crosssectioned view of smoking filtration device 1500C (a different view and perspective of devices 100- 1500B) with the valve cartridge assembly removed from the atrium cavity in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. [00434] In an aspect, smoking filtration device 1500C can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, smoking filtration device 1500C can include valve cartridge sub-assembly 1381, atrium receiving cavity 1387, and vented holder inhale cavity 1388 and atrium receiving cavity 1387. In another aspect, FIG. 15C illustrates the detachable nature of atrium 104 from the heating tube 412. Furthermore, valve cartridge assembly 1381 is removed from atrium receiving cavity 1387 such that the cartridge can be replaced or reinserted. Furthermore, the keying within atrium receiving cavity 1387 to engage structures on valve cartridge assembly 1381 is illustrated in a non-limiting embodiment. Other non-limiting embodiments don’t require such keying features.

[00435] Turning now to FIG. 15D, illustrated is a diagram of an example, non-limiting angled view of smoking filtration device 1500D (a different view and perspective of devices 100-1500C) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00436] In an aspect, smoking filtration device 1500D can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, smoking filtration device 1500D can include detachable mouthpiece 102 and illustrates the entire device 1500D with all subassemblies intact. Furthermore, the valve cartridge sub-assembly 1381 is seamlessly integrated within device 1500D in such non-limiting embodiment.

[00437] Turning now to FIG. 15E, illustrated is a diagram of an example, non-limiting angled view of smoking filtration device 1500E (a different view and perspective of devices 100-1500D) with atrium and detachable mouthpiece removed in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00438] In an aspect, smoking filtration device 1500E can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, smoking filtration device 1500E can include detachable mouthpiece 102, atrium 104, valve cartridge interaction cap 111, and integrated top tube receiver 1383. In an aspect, valve cartridge interaction cap 111 can act as a user touchpoint to remove valve cartridge sub-assembly 1381 upon replacement. The valve cartridge interaction cap 111 can engage the atrium detent (e.g., springed plunger on the electronic subframe 918) to lock the atrium in place. Furthermore, in an aspect, valve cartridge interaction cap 111 can simplify the removal or reinsertion process of valve cartridge sub-assembly 1381 by providing a strong grip surface to counteract any resistance from the compressed gasket or residue buildup.

[00439] In another non-limiting embodiment, valve cartridge sub-assembly 1381 can contain a “shelf feature” which interlocks with electronics subframe 918 and the embedded atrium detent when atrium 104, vented holder, and/or smoking media is inserted into heating tube 412 and rotated clockwise such that atrium 104 cannot be pulled vertically up after the atrium is fully rotated clockwise which acts as a safety feature that prevents any accidental disengagement of atrium 104 which would otherwise risk the extremely high temperature activated smoking media to fall out of the heating tube cavity (e.g., atrium 104 can only be removed by rotating fully counter-clockwise).

[00440] Furthermore, in a non-limiting embodiment, the “shelf feature” that interlocks with electronics subframe 918 can provide tactile feedback to a user upon fully engaging (e.g., rotating clockwise) or disengaging (rotating counterclockwise) the atrium 104. In another non-limiting embodiment, valve cartridge sub-assembly 1381 can attach onto the valve cartridge interaction cap mounting located on the external face of the fresh-air intake valve seat 1351. In another non-limiting embodiment, valve cartridge interaction cap can be pre-molded into the fresh-air intake valve seat 1351. [00441] In an aspect, integrated top tube receiver 1383 can allow for atrium 104 and vented holder 956 to form a hermetic seal with heating tube 412. In an aspect, integrated top tube receiver 1383 can remove the need for an additional component (e.g., top tube receiver) which simplifies the assembly and reduces part costs. In another aspect, integrated top tube receiver 1383 can prevent the heating tube 412 from becoming misaligned. In yet another aspect, integrated top tube receiver 1383 can create a smooth surface for atrium 104 and vented holder to interface with and create a hermetic seal. In yet another aspect, integrated top tube receiver 1383 can include a flared/suaged open section of heating tube 412. Furthermore, in an aspect, integrated top tube receiver 1383 can point to the internal mating surface of the integrated top tube receiver 1383 configured to interact directly with the vented holder seal.

[00442] Turning now to FIG. 15F, illustrated is a diagram of an example, non-limiting angled view of smoking filtration device 1500F (a different view and perspective of devices 100-1500D) with atrium and detachable mouthpiece removed in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. [00443] In an aspect, smoking filtration device 1500F can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, smoking filtration device 1500F can include detachable mouthpiece 102, atrium 104, valve cartridge sub-assembly 1381, integrated top tube receiver 1383, atrium receiving cavity 1387, valve cartridge interaction cap mounting 1389. In an aspect, valve cartridge interaction cap mounting 1389 can allow the valve cartridge interaction cap 111 to be secured to the fresh-air intake valve. Furthermore, valve cartridge interaction cap mounting 1389 can provide a solid surface for the interaction cap 111 so that even a tight pull of the cartridge (while removing) does not damage valve cartridge sub-assembly 1381. In another non-limiting embodiment, valve cartridge interaction cap mounting 1389 can be a feature on the external face of fresh-air intake valve seat 1351. Furthermore, in a non-limiting embodiment, valve cartridge interaction cap mounting 1389 can be pre-molded into the fresh-air intake valve seat 1351.

[00444] Turning now to FIG. 15G, illustrated is a diagram of an example, non-limiting angled view of smoking filtration device 1500G (a different view and perspective of devices 100-1500E) with atrium, detachable mouthpiece, valve cartridge sub-assembly removed in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00445] In an aspect, smoking filtration device 1500G can include other components disclosed herein but not referenced or viewable in the illustration. In another aspect, smoking filtration device 1500G can include valve cartridge sub-assembly 1381, atrium receiving cavity 1387, and valve cartridge interaction cap mounting 1389. In an aspect, FIG. 15G illustrates removal of valve cartridge subassembly 1381 from atrium receiving cavity 1387 as well as removal of atrium 104 from device 1500G. As such, FIG. 15G clearly demonstrates the ease with which interchangeability of the valve cartridge sub-assembly 1381 can take place. Furthermore, in a non-limiting embodiment, the interlocking nature of valve cartridge sub-assembly 1381 with atrium receiving cavity 1387 can be shown as well through the keying provisions in atrium receiving cavity. As such, valve cartridge sub-assembly 1381 is ensured to be inserted correctly due to such guided keying mechanism that requires the proper position and orientation of valve cartridge sub-assembly 1381 to insert into atrium receiving cavity 1387.

[00446] Turning now to FIG. 15H, illustrated is a diagram of an example, non-limiting crosssectioned view of smoking filtration device 1500H (a different view and perspective of devices 100- 15001) that illustrates hollowed fresh-air intake valve in an open position in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00447] In an aspect, smoking filtration device 1500H can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1500H can include valve cartridge sub-assembly 1381, atrium receiving cavity 1387, and valve cartridge interaction cap mounting 1389, hollowed inhale valve 1326A, hollowed exhale valve 1326B, hollowed fresh-air intake valve 1326C, inhale intake cartridge orifice 1332, cartridge internal exhale orifice 1334, vented-holder cartridge exhaust orifice 1330, fresh-air intake cartridge inlet orifice 1327, and atmospheric cartridge orifice 1352.

[00448] In the view presented in FIG. 15H, the hollowed fresh-air intake valve 1326C is open based on the negative pressure generated from fan/air blower 502 (not from application of an inhaled suction pressure). Given the operation of fan/air-blower 502, the device is determined to be powered on and the igniter is either currently activated or has already been activated and deactivated (e.g., the smoking media is actively being burnt, or is already burning), however the user is not actively engaging the device, that is a user is neither performing an inhale event nor an exhale event. As such, in this state, fresh air is fed passively to the smoking media tip 1362B, which maintains the active state of the smoking media, while simultaneously, side stream (e.g., smoke emanating from the smoking media tip) and potential remnant exhaled smoke is passively moved from the heating tube cavity through the filtration membranes for purification. In a non-limiting embodiment, hollowed exhale valve 1326B and hollowed fresh-air intake valve 1326C are connected via an elastomeric column that allows both of these valves to be secured in place with one mechanical component to save parts (by having the two valves integrated into one component). In another non-limiting embodiment, hollowed exhale valve 1326B and hollowed fresh-air intake valve 1326C can be identical to the hollowed inhale valve 1326A (in that they are single-function valve components) and are separated by an additional mechanical seat and/or spacing component.

[00449] Turning now to FIG. 151, illustrated is a diagram of an example, non-limiting crosssectioned view of smoking filtration device 15001 (a different view and perspective of devices 100- 1500H) that illustrates all the valves in a closed position in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. [00450] In an aspect, smoking filtration device 15001 can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 15001 can include valve cartridge sub-assembly 1381, atrium receiving cavity 1387, hollowed inhale valve 1326A, hollowed exhale valve 1326B, and hollowed fresh-air intake valve 1326C.

[00451] In the view illustrated in FIG. 151, the hollowed inhale valve 1326A, hollowed exhale valve 1326B, and hollowed fresh-air intake valve 1326C are in their sealed or closed positions. As such, the device is either off completely or the device has been turned on but the igniter sequence has not been engaged (e.g., no smoking media activation or heating element was not powered on), or that the igniter was already engaged and was either paused manually or triggered automatically by the heat sensor extinguishing algorithm (e.g., smoking media was activated, was either paused mid-burn or fully finished based on heat sensor detection).

[00452] In a non-limiting embodiment, hollowed exhale valve 1326B and hollowed fresh-air intake valve 1326C are connected via an elastomeric column that allow both valves to be secured in place with one mechanical component (e.g., by having two valves combined into a single component). Such embodiment can save component parts and create manufacturing process and cost efficiencies. In another non-limiting embodiment, hollowed exhale valve 1326B and hollowed fresh-air intake valve 1326C can be identical to hollowed inhale valve 1326A (in that they are single-function valve components) and are separated by an additional mechanical seat/spacing component.

[00453] Turning now to FIG. 15 J, illustrated is a diagram of an example, non-limiting crosssectioned view of smoking filtration device 1500J (a different view and perspective of devices 100- 15001) that illustrates all the hollowed exhale valve in an open position in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00454] In an aspect, smoking filtration device 1500J can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1500J can include valve cartridge sub-assembly 1381, atrium receiving cavity 1387, hollowed inhale valve 1326A, hollowed exhale valve 1326B, and hollowed fresh-air intake valve 1326C.

[00455] In the view illustrated in FIG. 15 J, hollowed exhale valve 1326B is cracked open from the positive pressure from the lungs during exhalation as applied through device 1500J (e.g., via proper exhalation when the user interacts with the detachable mouthpiece 102 or atrium nipple in an air-tight fashion). The open position of hollowed exhale valve 1326B allows exhaled smoke (e.g., secondhand smoke) to enter the heating tube 412 via the vented holder cartridge exhaust orifice 1330, then pass through the ignition block and filter inlet connector leak path 940, through the filtration membranes (e.g., where it is purified), then through the fan/air-blower 502 cavity from which the smoke flow ultimately is passively released through the device exhaust orifice. In a non-limiting embodiment, fan/air-blower 502 power management system can detect an increase in fan blade rotational speed to determine an exhaled pressure over time and thus a total exhaled volume. The detection of exhaled pressure over time can be determined by the exhale pressure/airflow sensor that may reside in the atrium receiving cavity in one or more non-limiting embodiments.

[00456] Turning now to FIG. 15K, illustrated is a diagram of an example, non-limiting crosssectioned view of smoking filtration device 1500K (a different view and perspective of devices 100- 1500J) that illustrates all the hollowed inhale valve and hollowed fresh-air intake valve in an open position in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00457] In an aspect, smoking filtration device 1500K can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1500K can include valve cartridge sub-assembly 1381, atrium receiving cavity 1387, hollowed inhale valve 1326A, hollowed exhale valve 1326B, and hollowed fresh-air intake valve 1326C.

[00458] In the view illustrated in FIG. 15K, both hollowed inhale valve 1326A and hollowed fresh-air intake valve 1326C are cracked open by the negative suction pressure generated from the user's lungs during inhalation. This means that the fresh-air intake valve is being actively opened, as compared to merely passively open when only the fan/air blower 502 is suctioning air, which allows fresh-air to actively pass through to, as compared to when smoke passively passes around, the smoking media tip epicenter, resulting in the generation of aerosol/smoke via a combustion, or other heat induced, chemical reaction which can then exit the smoking media via the non-heatable smoking media and ultimately drawn into the user's lungs through the open inhale valve and mouthpiece cavity 102.

[00459] In another aspect, both hollowed inhale valve 1326A and hollowed fresh-air intake valve 1326C could also be cracked open in the event the smoking media is installed into the silicone gasket and a test inhalation event occurs (e.g., to test if the smoking media is installed). Given that the user cannot see the smoking media visually when the atrium 104 is in the locked/installed position, they may perform a test inhalation, however, in such case no aerosol would be produced. In most cases however, the user will likely only be initiating this valve state when the smoking media is activated (e.g., burning). In another non-limiting embodiment, fan/air-blower 504 power management system can detect a decrease in fan blade rotational speed to deduce an exhaled pressure over time and thus a total inhaled volume. This could aid or replace the inhale pressure/airflow sensor that may reside in the atrium receiving cavity. Also, the valve seat now pushes on the hollowed center which applies pressure on the valve and seals the perimeter to the flat surface of the seat. This is different from a traditional umbrella valve with stem required to be pulled through the seat to create tension within the valve for it to seat. One difference to note is that with the illustrated non-limiting embodiment, the force on the valve (e.g., to seal the valve) is a push force rather than a pull force.

[00460] Turning now to FIG. 15P, illustrated is a diagram of an example, non-limiting angled, cross-sectioned view of smoking filtration device 1500P (a different view and perspective of devices 100-15000) that illustrates all the valves in a closed position in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00461] In an aspect, smoking filtration device 1500P can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1500P can include valve cartridge sub-assembly 1381, hollowed inhale valve 1326A, hollowed exhale valve 1326B, and hollowed fresh-air intake valve 1326C.

[00462] In the view illustrated in FIG. 15P, the valves' depth is illustrated due to the perspective view. In the illustrate non-limiting embodiment, hollowed exhale valve 1326B and hollowed fresh-air intake valve 1326C are connected via an elastomeric column that allows both valves to be secured in place with one mechanical component which reduces component parts (e.g., by combining two valves into a single component). In another non-limiting embodiment, hollowed exhale valve 1326B and hollowed fresh-air intake valve 1326C are identical to the hollowed inhale valve 1326A (in that they are single-function valve components) and are separated by an additional mechanical seat/spacing component.

[00463] Turning now to FIG. 16 A, illustrated is a diagram of an example, non-limiting exploded view of the filtration subsystem 1600A also referred to as filter sub-assembly 1600A (a different view and perspective of devices 100-1500P) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

I l l [00464] In an aspect, filtration subsystem 1600A can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, filtration subsystem 1600A can include filter shell cup 936A, filter shell lid 936B, filter inlet 968B, filter outlet 968A, pleated filtration media 1802, separating fabric 1806, separating frame A 1808, pelletized filtration media 1810, fabric filtration media 1812, separating frame B 1814, exhaust plenum 1816, and pelletized media retainment feature 1818. In an aspect, filter shell cup 936A can be the main housing for all the filtration media. Furthermore, in a non-limiting embodiment, filter shell cup 936 A may contain the female features on the filter shell lid 936B to insert into and create a hermetic seal.

[00465] In another aspect, filtration subsystem 1600A can include filter shell lid 936B that acts as the mating component to the filter shell cup 936 A to hermetically seal the internal components and media for the filter sub-assembly 1600A. Filtration subsystem 1600A can include filter shell lid 936B configured to act as the mating component to the filter shell cup 936 A to hermetically seal the internal components and media for the filter sub-assembly 1600 A. Furthermore, in a non-limiting embodiment filter shell lid 936B can contain male features which slot into the female sealing grooves of filter shell cup 936 A such features are located along the perimeter and the top surfaces of the separating frames to create sealed zones within respective filtration media cavities.

[00466] In another aspect, filter shell lid 936B can contain a protruded, internally facing, portion that facilitates compacting the pelletized filtration media to prevent the creation of channels (e.g., air pockets) within the filter, which would otherwise force the smoke to travel along the path of least resistance and subvert the majority of the pelletized filtration media (thus having a lower filtration efficacy). In another aspect, the ability of filter shell lid 936B to compact the pelletized filtration media ensures that smoke travels throughout the entire volume of the pelletized filter media, thus generating a high level of filtration efficacy. In another non-limiting embodiment, filter shell lid 936B can include a welded, heat-staked, glued or otherwise adhered (e.g., via a range of adhering mechanisms) to the filter shell cup. Furthermore, in non-limiting embodiments, filter shell lid 936B can contain an embedded RFID, NFC within the filter shell cup 936 A to track the filter lifespan and ensure authenticity of the filter. In yet another aspect, filter shell lid 936B can also contain an imprinted QR code which allows for one-click reorder when scanned with a web-enabled camera device. In yet another aspect, filter shell lid 936B can comprise a material that is any one or more of eco-friendly biodegradable plastics.

[00467] In a non-limiting embodiment, filtration subsystem 1600A can include filter outlet 968 A configured as a point of exit for filtered smoke and air out of the filter. In an aspect, filter outlet 968A can contain surfaces that mate with filter outlet connector 932A to create a seal. In another aspect, filter outlet 968A can be a point of exit for filtered smoke/air to leave the exhaust plenum. In another aspect, filter outlet 968A can act as an interfacing surface to which the filter can be inserted and removed easily, while forming a hermetic seal upon insertion. In another non-limiting embodiment, filter outlet 968 A can be an embedded feature of the filter shell cup 936 A. In yet another non-limiting embodiment, filter outlet 968A can be depicted as the filter inlet connector mating with the inner diameter of the filter inlet 968B. In other non-limiting embodiments, filter outlet connector 932A can mate with the outer diameter of filter inlet 968B. In yet another non-limiting embodiment, filter inlet 968B can be a nonprotruding section that face seals with filter inlet connector 714, rather than forming a radial seal with the filter inlet 968B.

[00468] In another non-limiting embodiment, filter inlet 968B can be the point of entry for smoke into the filter and contain surfaces that mate with the filter inlet connector 714 to create a seal. In another non-limiting embodiment, filter inlet 968B can be the point of entry for smoke into the filter, including the inlet plenum 1804. In another aspect, In another non-limiting embodiment, filter inlet 968B can act as an interfacing surface which allows the filter to be inserted and removed easily, while making a hermetic seal every time it is inserted. Furthermore, in an aspect, filter inlet 968B can be an embedded feature of the filter shell cup 936 A. In yet another aspect, filter inlet 968B can be depicted as the filter inlet connector 714 mating with the inner diameter of the filter inlet 968B. In other nonlimiting embodiments, filter inlet connector 714 can mate with the outer diameter of the filter inlet 968B. In yet another non-limiting embodiment, filter inlet 968B can be a non-protruding section that creates a face seal with the filter inlet connector 714 rather than a radial seal with the filter inlet 968B.

[00469] In another non-limiting embodiment, filtration subsystem 1600A can include pleated filtration media 1802 that is filtration media responsible for separating the larger solid particulates and aerosolized gasses (e.g., ash, tars, chemical groups larger than .1 micron) from the smoke stream and/or ash stream to ensure the pelletized bed is effective at filtrating the gasses (e.g., sub .1 micron gasses). In an aspect, pleated filtration media 1802 can be highly effective at removing all visible fumes from secondhand smoke (e.g., exhaled smoke) or sidestream smoke (e.g., smoking media tip smoke).

Furthermore, pleated filtration media 1802 can be the pleat spacing and selected media specifically designed to produce the lowest backpressure (e.g., pressure felt as smoke is being pushed through the pleated filtration media 1802) and the longest longevity (e.g., highest amount of particulate filtration capacity) of filter possible for smoke generated via a combustion or other heat induced chemical reaction, that otherwise prevents excessive strain on the fan/air-blower 502.

[00470] In another aspect, pleated filtration media 1802 can remove a large majority of moisture from smoke stream which results from the user’s breath and the smoking media itself being heated, which prevents condensation on the internal cavity of the fan/air-blower 502 and other electronic components which could damage them over time. In another non-limiting embodiment, pleated filtration media 1802 can be non-flammable and thus prevent any high temperature residue (e.g., burning ashes/embers) from damaging the filter rendering it ineffective, or from creating a safety risk to the user and the device.

[00471] In yet another non-limiting embodiment, pleated filtration media 1802 can be glued, or otherwise adhered into the filter shell cup 936A (e.g., into the filter shell pleated media cavity) and during manufacturing, after the remaining filter media is inserted, pleated filtration media 1802 can be glued or otherwise adhered to the filter shell lid 936B such that there are no air gaps around the perimeter which ensures all smoke travels through the pleated media. In another aspect, pleated filtration media 1802 can function based on the concept of absorption, in which the microscopic overlapping threads of the fabric create a surface on which the particulates can cling. In another nonlimiting embodiment, pleated filtration media 1802 can comprise a material that can be a woven or a non-woven fabric made of glass, PTFE, plastic (or other materials) that can be classified as HEP A, ULPA, PECO (or other types of filter media classifications) which can be 99.85% efficient (or more). In other non-limiting embodiments, other implementations of pleated filtration media 1802 can achieve filtration efficiencies that are less than 99.85%.

[00472] In yet another non-limiting embodiment, pleated filtration media 1802 can be created by using one continuous sheet of absorbent fabric which is pleated into an accordion shape via a manufacturing process which can also impart some fixturing compound such that the pleated filtration media does not lose or weaken in its form after pleated filtration media 1802 is removed and cut to the appropriate length to fit into the filter shell pleated media cavity.

[00473] In another aspect, filtration subsystem 1600A can include separating fabric 1806 that is a porous fabric material that retains the loose pellets/granules of the pleated filtration media 1802 in place, while being extremely porous as to not increase pressure drop within the filter. Furthermore, separating fabric 1806 can create a side wall of the form/cavity, into which the pleated filtration media 1802 can be poured. The sidewall can contribute additional rigidity to separating fabric 1806 and allow the filter shell lid 936B to apply a compressive force onto the pleated filtration media 1802 ensuring it is compacted with no channeling (e.g., internal air paths).

[00474] In another aspect, the porous nature of separating fabric 1806 prevents any additional back-pressure being created within the filter, which prevents added strain on the user's lungs during exhalation or on the fan/air-blower 502 as it is suctioning. In another aspect, the retaining nature of separating fabric 1806 can prevent the pleated filtration media 1802 from pouring into the underside of the pleated filtration media 1802 (e.g., the side that is not facing the inlet plenum) which can otherwise cause clogging in the pleated filtration media 1802 and result in a higher back pressure that would otherwise strain a user's lungs or fan/air blower 502. In a non-limiting embodiment, separating fabric 1806 can be adhered onto the pleated filtration media 1802 facing side of the separating frame A 1808. In another aspect, separating fabric 1806 can be a material comprising melt-blown plastic, cotton, glass or other porous fabric-like material. In another non-limiting embodiment, separating fabric 1806 does not perform filtering. In other non-limiting embodiments, separating fabric 1806 can act as an additional filtration stage by having absorptive properties and/or catalysts impregnated within separating fabric 1806.

[00475] In yet another aspect, filter sub-system 1600 A can include separating frame A 1808 and separating frame B 1814. In a non-limiting embodiment, separating frame A 1808 and separating frame B 1814 can each contain female sealing features on its top surface (which allow filter shell lid 936B to align and seal with filter shell cup 936 A) and create a hollow frame structure to which the separating fabric 1806 can adhere. In another non-limiting embodiment, separating frame A 1808 and separating frame B 1814 can each comprise a hollow frame cavity that allows a large cross-section of air to pass through via the separating fabric, which prevents backpressure. Furthermore, in non-limiting embodiments, separating frame A 1808 and separating frame B 1814 can have mounting features on the top surface that ensure filter shell lid 936B is properly aligned to the filter shell cup 936A to ensure an airtight seal.

[00476] In another aspect, due to the adherence of the separating fabric to the frame on the side of separating frame A 1808 and separating frame B 1814 facing the pleated filtration media 1802, the hollow cavity of the frame can be filled with additional pelletized filtration media which increases the odor & gaseous filtration capability of the pelletized media. Accordingly, pelletized filtration media 1810 comprises a protruding feature that is excess media filling the hollow cavity of the frame. In another non-limiting embodiment, the internal filtration media can be separated by other means than this frame feature.

[00477] In another non-limiting embodiment, filter sub-system 1600 A can include pelletized filtration media 1810 that is responsible for separating the sub-micron odor-producing and harmful gasses from the particulate-removed smoke stream. Furthermore, pelletized filtration media 1810 can remove the large majority of odor and harmful gasses, which can include but are not limited to, carbonyls, ammonia, cannabinoids, terpenes, and other volatile organic compounds. In another aspect, the compacted nature of the small pellets within pelletized filtration media 1810 ensure that no channeling (e.g., internal airpaths which subvert the majority of the pellets) arises, which maximizes the odor/gas filtration capacity of pelletized filtration media 1810.

[00478] In another aspect, pelletized filtration media 1810 can be poured into the pelletized filtration cavity within the filter shell cup 936A and held in place by separating fabric 1806, fabric filtration media 1812, filter shell cup 936 A outer wall, and pelletized filtration media 1810 retainment feature. The pelletized filtration media 1810 can subsequently be compressed by the protruded portion of filter shell lid 936B, as the lid is adhered/welded to the filter shell cup 936A. In another aspect, pelletized filtration media 1810 can be small (e.g., sub-millimeter) pellets/granules comprised of an activated carbon (e.g., produced from coal, wood, coconut husk or other material) that can be impregnated with metal for targeting specific molecules (e.g., formaldehyde) or a custom formulated catalyst (e.g., chemically synthesized crystalline material, or other type of catalyst), or both. The pelletized filtration media 1810 can be highly effective at targeting odor, organic vapors and other gaseous contaminants for removal from the smoke stream.

[00479] Due to the malleable/free-fl owing nature of pelletized filtration media 1810, pelletized filtration media 1810 can fill the internal cavity of separating frame A 1808 to maximize the filtering capacity of this media. In another non-limiting embodiment, pelletized filtration media 1810 can be so compressed to the point where it becomes a monolithic piece (e.g., briquette) that can be placed/picked- up by hand or by machine into pelletized filtration media cavity of filter shell cup 936 A instead of being poured in. In another aspect, pelletized filtration media 1810 can implement adsorption mechanisms, in which every pellet/granule within pelletized filtration media 1810 contains microscopic air cavities which contain a negative pressure differential. The air cavities can cause the gas molecules (which are likely ionized) to gravitate into these internal cavities, removing them from the smoke stream and leaving only air. The phenomenon is akin to silica gel beads which absorb moisture from the air. [00480] In yet another aspect, filter sub-system 1600 A can include fabric filtration media 1812 that is a media responsible for removing any remnant odor producing gasses that leave pelletized filtration media 1810 and creates a structural formation that prevents the pellets from pouring into exhaust plenum 1816. In another aspect, fabric filtration media 1812 is configured to act as a final stage of filtration after pelletized filtration media 1810 removes any final particulates and gasses from the smoke. In another aspect, fabric filtration media 1812 can act as a separator that prevents pellets from falling or being blown into the exhaust plenum 1816 and subsequently the fan/air blower 502 via filter outlet 968A, which could cause damage to the fan/air blower 502 and other electronics components.

[00481] In another aspect, fabric filtration media 1812 can be adhered to the inner face (side not facing the exhaust plenum) of separating frame B 1814. In another non-limiting embodiment, fabric filtration media 1812 can function based on both absorption, due to the overlapping threads within the fabric creating a surface for particulates to cling onto, and adsorption, due to being impregnated with activated carbon and/or other catalysts which suck in gasses into their inner cavities. In another aspect, in the event the smoke being produced from a specific smoking media is milder, and requires less filtration, or the pelletized filtration media 1802 is improved, creating more filtration capacity, the fabric filtration media 1812 can be replaced with a non-filtering separating fabric 1806.

[00482] In yet another non-limiting embodiment, filter sub-system 1600 A can include exhaust plenum 1816 comprising an empty cavity space within the filter sub-assembly which provides a large cross-sectional area for the filtered smoke to diffuse and exit the filter. Furthermore, in an aspect, exhaust plenum 1816 can include a large cross section that prevents additional back-pressure from being generated, which alleviates any additional strain on the user’s lungs and fan/air-blower 502.

Furthermore, in an aspect, exhaust plenum 1816 can include a minimized volume of plenum that allows for the maximum amount of filtration media within the allotted filter sub-assembly voluminous space. In another aspect, exhaust plenum 1816 can also include

[00483] I another non-limiting embodiment, filter sub-system 1600A can comprise pelletized media retainment feature 1818 comprising a raised section within the filter shell cup 936A that prevents pelletized media from overflowing, while creating an even top surface on the pelletized filtration media 1810 creating a structural form that can be evenly compressed by the protruding featuring on the inner face of filter shell lid 936B. In another aspect, pelletized media retainment feature 1818 can prevent pelletized filtration media 1810 from falling or blowing into exhaust plenum 1816 and subsequently the fan/air blower 502 via filter outlet 968A, which could cause damage to the fan/air blower 502 and other electronics components.

[00484] In another aspect, pelletized media retainment feature 1818 can help create an even top surface on pelletized filtration media 1810 to allow the pellets to be compacted by the protruding feature on the inner face of filter shell lid 936B which will prevent channeling within pelletized filtration media 1810 where such channeling would otherwise make pelletized media less effective. In another aspect, pelletized media retainment feature 1818 can be an embedded feature within the filter shell cup 936A that contains female mating features which can align with filter shell lid 936B for sealing. In another non-limiting embodiment, where the pelletized filtration media 1810 is compacted to a level where the pellets form a briquette-like structure, then the raised portion can be removed due to the lack of possibility of it overflowing and the lack of necessity to further compact an even top surface.

[00485] Turning now to FIG. 16B, illustrated is a diagram of an example, non-limiting left-side view of the filtration subsystem 1600B (a different view and perspective of devices 100-1600A) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00486] In an aspect, filtration subsystem 1600B can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, filtration subsystem 1600B can include filter shell cup 936A, filter shell lid 936B, filter inlet 968B, filter outlet 968A, pleated filtration media 1802, inlet plenum 1804, separating fabric 1806, separating frame A 1808, pelletized filtration media 1810, fabric filtration media 1812, separating frame B 1814, exhaust plenum 1816, and pelletized media retainment feature 1818.

[00487] In a non-limiting embodiment, filtration subsystem 1600B can employ inlet plenum 1804 that can be an empty cavity space within the filter sub-assembly which provides a large cross-sectional area for the filtered smoke to diffuse and enter the filter. Furthermore, inlet plenum 1804 can create a final reservoir for any residue (e.g., ash) from clogging the internal air pathway of the device. In another aspect, inlet plenum 1804 can also include a large cross section that prevents additional back pressure from being generated and alleviates any additional strain on a user’s lungs and fan/air-blower 502.

[00488] In another aspect, inlet plenum 1804 can include a large cross-sectional area that prevents additional back pressure from being generated, which alleviates any additional strain that would otherwise be imposed on the user's lungs and the fan/air blower 502. In another aspect, the large cross section of inlet plenum 1804 also spreads the concentration of smoke across the entire pleated filtration media 1802 to prevent "hot-spots" or localized zones of higher concentration from occurring, which in turn improves the longevity and filtration capacity of this media. In another non-limiting embodiment, inlet plenum 1804 can include a minimum volume that allows for the maximum amount of filtration media in the allotted filter sub-assembly volume. In yet another non-limiting embodiment, inlet plenum 1804 can comprise a hollow cavity of mainly the filter shell cup 936A (e.g., can make up the majority of the volume), and partially the filter shell lid 936B (e.g., creates top sealing surface of the plenum). [00489] Turning now to FIG. 16C, illustrated is a diagram of an example, non-limiting angled front side perspective view of the filtration subsystem 1600C (a different view and perspective of devices 100-1600B) in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00490] In an aspect, filtration subsystem 1600C can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, filtration subsystem 1600C can include filter sub-assembly 906, filter shell cup 936A, filter shell lid 936B, filter inlet 968B, and filter outlet 968 A. FIG. 16C provides a better vantage point to view the filtration subsystem 1600C and filter outlet 968 A and filter inlet 968B.

[00491] Turning now to FIG. 16D, illustrated is a diagram of an example, non-limiting crosssectioned front-side view of smoking filtration device 1600D (a different view and perspective of devices 100-1600C) and the arc lighting implementation in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00492] In an aspect, smoking filtration device 1600D can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1600D can include igniter interaction cap 1302, arc lighter rail A 1902A, arc lighter rail B 1902B, arc lighter rail power terminal A 1904A, arc lighter rail power terminal B 1904B, arc lighter electrode 1906A, and arc lighter counter-electrode 1906B. In a non -limiting embodiment, smoking filtration device 1600D can include igniter interaction cap 1302 that is a cap that allows access to the bottom end of heating tube 412 for cleaning and acts as a safety feature which prevents arc lighter from being powered on. In the illustrated non-limiting embodiment, there is no heating element or igniter mounting attached to igniter interaction cap 1302 unlike other embodiments disclosed herein. [00493] In another embodiment, igniter interaction cap 1302 allows access to the bottom end of heating tube 412 for cleaning. In another non-limiting embodiment, igniter interaction cap 1302 can act as a safety feature to prevent arc lighter powering on for safety (e.g., prevents finger from getting electrocuted). In yet another non-limiting embodiment, igniter interaction cap 1302 can be attached to the bottom of device unibody 110. In another non-limiting embodiment, igniter interaction cap 1302 can interface with heating tube 412 rather than device unibody 110.

[00494] In another non-limiting embodiment, arc lighter rail A 1902 A and arc lighter rail B 1902B can each form one side of the arc lighter sub-assembly and contain a series of electrodes (e.g., contact pins) capable of creating an arc with a respective lateral electrode on a corresponding arc lighter rail B 1902B and arc lighter rail A 1902A respectively. In another aspect, each arc lighter rail A 1902A and arc lighter rail B 1902B can each allow for any length of smoking media to automatically ignite by the system, including, but not limited to smoking media that has already been partially consumed (which would otherwise burn past the length of heating elements in other non-limiting embodiments. As such, other embodiments, cannot ignite partially consumed smoking media in the manner the arc lighter subassembly can. Accordingly, the arc lighter assembly allows for the most flexibility as the user does not need to attend to the smoking media length during ignition. In an aspect, filtration device 1600D can establish rules for maximum accepted length of smoking media items.

[00495] In an aspect, arc lighter rail A 1902 A and arc lighter rail B 1902B can be attached to the inner diameter of heating tube 412 and connect to arc lighter rail power terminal A 1904 A. In yet another aspect, the principle of the arc lighter sub-system is based on a high voltage climbing arc mechanism (such concept sometimes referred to as Jacob's ladder). In an aspect, by supplying a high voltage current to arc lighter rail A 1902 A and arc lighter rail B 1902B, the electrical current selects the shortest path between arc lighter rail A 1902 A and arc lighter rail B 1902B (or the path of least resistance). Therefore, the arc lighter creates a jumped arc at the lowest set of electrodes between arc lighter rail A 1902 A and arc lighter rail B 1902B. Furthermore, due to the tapered positioning/shape of the arc lighter rail A 1902A and arc lighter rail B 1902B, a connective current seeks to rise up to the next set of electrodes as the distance between them is shorter than the previous set. This process continues until the climbing jumped-arc reaches the top set of electrodes, at which point it resets to the bottom.

[00496] In another aspect, when a smoking media item is inserted between arc lighter rail A 1902 A and arc lighter rail B 1902B, then the shortest path between arc lighter rail A 1902 A and arc lighter rail B 1902B occurs at the smoking media tip, which begins to function as a conduit for the jumped-arc and simultaneously cause a buildup of thermal energy to ignite the smoking media tip regardless of the length/position of the smoking media item. The positioning of the set of electrodes which is successful at generating the jumped-arc can be detected by the device and communicated to the user via the user interface to notify them of the length of smoking media, and the projected amount of smoking time/puffs remaining (only when the igniter is powered on, otherwise this will have to be accomplished by the heat sensor algorithm). This allows the device to project the amount of smoking media remaining at the start of consumption (time of igniting) which removes the lag from the heat sensors as they are waiting for the heating tube to heat up prior to reporting a status of smoking media length.

[00497] In another non-limiting embodiment, arc lighter rail A 1902 A and arc lighter rail B 1902B are depicted as two discrete rail components which reside within heating tube 412. In another non-limiting embodiment, arc lighter rail A 1902 A and arc lighter rail B 1902B can be a feature of the heating tube 412 itself. In the illustrated non-limiting embodiment, after the ignition process is successful and the smoking media is activated, the device clears any ionized gasses (e.g., resultant from the arc jumping through air) via suction from the fan/air blower 502 and purification from the filter, prior to notifying the user to inhale to limit any unintended effects on the user.

[00498] In another non-limiting embodiment, smoking filtration device 1600D can include arc lighter rail power terminal A 1904 A and arc lighter rail power terminal B 1904B that allows the arc lighter rail and attached arc lighter electrodes to receive high voltage power from battery 708 via control PCB 404 and igniter cabling A 1306 and igniter cabling B 1308 respectively. In another aspect, arc lighter rail power terminal A 1904 A and arc lighter rail power terminal B 1904B enables the powering of arc lighter rail A 1902 A and arc lighter rail B 1902 B respectively to ignite the smoking media. In another aspect, arc lighter rail power terminal A 1904 A and arc lighter rail power terminal B 1904B can be fastened to device unibody 110 and connects arc lighter rail A 1902 A and arc lighter rail B 1902 B to control PCB 404 via igniter cabling A 1306 and igniter cabling B 1308 respectively.

[00499] In yet another non-limiting embodiment, smoking filtration device 1600D can employ arc jump site 1905 that is the shortest path between an electrode and counter-electrode set due to the smoking media being installed, which allows the arc to jump across the smoking media tip and simultaneously igniting it. Furthermore, in an aspect, the dynamic (e.g., not fixed) nature of the arc jump site allows the smoking media tip to be ignited with any length of smoking media. In another aspect, arc lighter electrode 1906 A can include one of many exposed metal, or other electrically conductive material, prongs/contact-pins configured to allow an arc to be jumped to its counter-electrode to generate a high voltage arc capable of activating the smoking media. In another aspect, the arc lighter sub-assembly allows for any length of smoking media to be ignited automatically by the system, this includes smoking media that has been already partially consumed, which would otherwise burn past the length the heating elements in other disclosed non-limiting embodiments and therefore not be re- ignitable.

[00500] Jump site 1905 allows for the most flexibility as the user does not need to be conscious of the smoking media length, the only requirement to be satisfied is that the smoking media is lower than the maximum accepted length by the system. In yet another aspect, arc lighter electrodes can go through a cleaning sequence when the arc lighter is powered on (e.g., while no smoking media is inserted), in which each electrode and counter-electrode set generate a hot high-voltage arc which bums off any residue which may have accumulated on either electrode. In a non-limiting embodiment, jump site 1905 can be one of many metal features embedded into the arc lighter rail A 1902A and/or arc lighter rail B 1902B.

[00501] In yet another aspect, device 1600D can detect the positioning of the set of electrodes which are successful at generating the jumped-arc and communicate such positioning to the device user interface to communicate the length of the smoking media and/or the projected amount/number of smoking time/puffs remaining (e.g., only when the igniter is powered on, otherwise the heat sensor algorithm makes such determination). In an aspect, the communication allows the device to predict the amount of smoking media remaining at the start of consumption (e.g., time of igniting), which removes the lag from the heat sensors as they are waiting for the heating tube 412 to heat up prior to reporting a status of smoking media length.

[00502] In another non-limiting embodiment, device 1600D can employ arc lighter electrode 1906 A and arc lighter counter-electrode 1906B are one of many exposed metal, or other electrically conductive material, prongs or contact-pins configured to allow an arc to be jumped to a corresponding counter-electrode to generate a high voltage arc capable of activating the smoking media. In an aspect, the arc lighter sub-assembly allows for any length of smoking media to be ignited automatically by the system, this includes smoking media that has been already partially consumed (e.g., smoking media that would have otherwise burnt past the length the heating elements in the previous embodiments could ignite). In an aspect, arc lighter electrode 1906 A and arc lighter counter-electrode 1906B can undertake a cleaning sequence when the arc lighter is powered on, while no smoking media is inserted, in which each electrode and counter-electrode set generate a hot high-voltage arc that bums off any residue which may have accumulated on either electrode. In a non-limiting embodiment, arc lighter electrode 1906 A and arc lighter counter-electrode 1906B can be one of many metal features embedded into arc lighter rail A 1902 A or arc lighter rail B 1902B.

[00503] In another aspect, the positioning of the set of the arc lighter electrode 1906 A and arc lighter counter-electrode 1906B, which is successful at generating the jumped arc can be detected by the device and communicated via the user interface to present the length of smoking media and the projected amount of smoking time/number of puffs remaining. However, such detection and projection can be detected by the device only when the igniter is powered on, otherwise, if the igniter is not on, the heat sensor algorithm will have to accomplish the detection and projection activities. In any event, such detection and projection capabilities allow the device to project the amount of smoking media remaining at the start of consumption (e.g., time of igniting the smoking media) which removes the lag from the heat sensors as they are waiting for the heating tube to heat up prior to reporting a status of smoking media length.

[00504] Turning now to FIG. 16E, illustrated is a diagram of an example, non-limiting crosssectioned front-side view of smoking filtration device 1600E (a different view and perspective of devices 100-1600D) and the arc lighting implementation with smoking media item in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00505] In an aspect, smoking filtration device 1600E can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1600E can include smoking media tip 1362B, arc lighter rail A 1902A, arc lighter rail B 1902B, arc lighter rail power terminal A 1904A, arc lighter rail power terminal B 1904B, arc jump site 1905, arc lighter electrode 1906 A, and arc lighter counter-electrode 1906B. In an aspect, FIG. 16E illustrates the smoking media item between arc lighter rail A 1902 A and arc lighter rail B 1902B. As such, the smoking media item awaits a jumping between arc lighter electrode 1906A and arc lighter counterelectrode 1906B.

[00506] Turning now to FIG. 16F, illustrated is a diagram of an example, non-limiting crosssectioned angled perspective view of the frontside of smoking filtration device 1600F (a different view and perspective of devices 100-1600E) and the arc lighting implementation with smoking media item in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00507] In an aspect, smoking filtration device 1600F can include other components disclosed herein but not referenced or viewable in the illustration. In an aspect, smoking filtration device 1600F can include filter inlet connector leak-path 940, igniter interaction cap 1302, arc lighter rail A 1902 A, and arc lighter rail B 1902B. In an aspect, FIG. 16E illustrates the smoking media item between arc lighter rail A 1902A and arc lighter rail B 1902B. As such, the smoking media item awaits a jumping between arc lighter electrode 1906 A and arc lighter counter-electrode 1906B. In a non-limiting embodiment illustrated in FIG. 16F there is no heating element or igniter mounting attached to the igniter interaction cap.

[00508] Turning now to FIG. 16G, illustrated is a diagram of an example, non-limiting crosssectioned view of an inhale air pathway throughout smoking filtration device 1600G in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00509] In an aspect, an inhale air pathway is the way in which air enters into the system at the point of inhalation to supply the proper reactants required to generate an aerosolized stimulus for consumption. Upon application of a negative pressure (e.g., via a user inhalation event) to detachable mouthpiece 102, air can rush into the fresh-air intake cartridge inlet orifice 1327 via fresh-air intake 926 which causes hollowed fresh-air intake valve 1326C or fresh air intake orifice 729C (e.g., in another non-limiting embodiment where the valve assembly is built into the atrium cavity instead of within a valve assembly cartridge) to open more completely (e.g., the valve will already be slightly open due to the negative pressure from the air-blower drawing air in, such as in the "idle airflow view") and allows air to flow into the intake/exhale cavity of the valve cartridge sub-assembly 1381. Subsequently, air flows out of valve cartridge sub-assembly 1381 via vented-holder cartridge exhaust orifice 1330 into heating tube cavity 1206. The air is further drawn into the smoking media via the smoking media tip 1362B, which acts as the site of activation for the smoking media and supplies the necessary reactants for combustion (or other chemical process involving heat) to occur to generate an aerosol for consumption. Thereafter, the consumable aerosol travels through smoking media core 1362A into non- heatable smoking media 1362C and continues to enter the atrium cavity via inhale orifice 927. The consumable aerosol passes through inhale intake cartridge orifice 1332 and due to achieving a sufficient threshold amount of suction, the inhale valve 1326A is cracked open (e.g., unsealed from the inhale valve seat surface), at which point the smoke can enter the valve cartridge cavity and enter into the user's lungs (for absorption of stimulus after it travels through the atmospheric orifice and the mouthpiece cavity) via the cavity of detachable mouthpiece 102.

[00510] Turning now to FIG. 16H, illustrated is a diagram of an example, non-limiting crosssectioned view of an exhale air pathway throughout smoking filtration device 1600H in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00511] In an aspect, an exhale air pathway 1602B discloses the manner in which secondhand smoke enters into the system at the point of exhalation in order to properly filter the harmful and odorous constituents within the smoke.

[00512] In an aspect, an exhale air pathway is the way in which secondhand smoke enters into the system at the point of exhalation to undergo a filtration process and ultimately be released into the environment free of odor and harmful byproducts of secondhand smoke. Upon application of a positive pressure (e.g., via a user exhalation event) to detachable mouthpiece 102, secondhand smoke can rush into the mouthpiece cavity 320 and into the ignition block core cavity 1352. Furthermore, in an aspect, the secondhand smoke can pass through cartridge internal exhale orifice 1334 configured to allow exhaled smoke to pass into the valve cavity. In another aspect, the secondhand smoke can flow past hollowed exhale valve 1326B, which flexes open based on application of a sufficient pressure from the exhaled secondhand smoke. In an aspect, hollowed exhale valve 1326B prevents an occurrence of exhalation through the smoking media.

[00513] In an aspect, vented-holder cartridge exhaust orifice 1330 can allow the secondhand smoke to be introduced into heating tube cavity 1206 and subsequently into the filtration cavity for purification. In an aspect, vented-holder cartridge exhaust orifice 1330 prevents exhaled secondhand smoke from entering into the non-heatable portion (e.g., cigarette filter) of the smoking media in order to protect the taste profile of the smoking media and prevent any dislodging of the smoking media as well. Furthermore, in an aspect, the secondhand exhaled smoke can pass into the filtration cavity via the filter inlet connector leak-path 940 which is a smoke or air pathway that connects the ignition block leak-path to the filter inlet plenum 1804. This portion of the exhale pathway allows fumes to pass through the ignition block. Within the filter cavity, the secondhand smoke pass through adsorbtive filter section 612 which adsorbs the majority of volatile organic compounds such as carbonyls, ammonia, and other gaseous chemicals that come from the burning smoking media tip as well as smoke exhaled into the device.

[00514] In an aspect, adsorptive filter section 612 can be located between the absorptive media separating fabric, and the carbon fabric within the filter shell. In another aspect, secondhand smoke can travel through the absorptive filter media 1803 (e.g., HEP A). Furthermore, in an aspect, the filtered secondhand smoke can pass through the exhaust plenum 1816 which is an empty cavity space within the filter subassembly that provides a large area for filtered smoke to diffuse and exit the filter. In yet another aspect, the filtered secondhand smoke (which is now mainly air) can exit the filter via filter outlet connector cavity 1328. The filter outlet connector 1328 is an air space between the filter outlet and the fan/air blower 502, which allows filtered smoke or air to enter into the fan/air blower 502. Furthermore, the filtered second hand smoke can evacuate into the external environment (e.g., atmosphere) after passing through the fan/air blower 502 via device exhaust cavity 116. In an aspect, device exhaust cavity 116 is an open cavity that lacks back-pressure that may result from a loss of fan suction. As such, device exhaust cavity 116 can prevent thermal energy of filtered secondhand smoke from heating up the electronic portion of the device. In yet another non-limiting embodiment, device exhaust cavity 116 can duct directly from the fan outlet to an extrusion on the unibody that isolates the path of the filtered secondhand smoke away from the general electronics area. In yet another aspect, electronics subframe exhaust orifice 916 allows the device exhaust from the outlet of fan/air blower 502 to passively diffuse out into the atmosphere. Furthermore, electronics subframe exhaust orifice 916 allows the device exhaust to diffuse into the atmosphere. The electronics subframe exhaust orifice 916 can prevent a buildup of heat and any residual moisture within the electronics area which improves the conditions for the electronics to function.

[00515] Turning now to FIG. 161, illustrated is a diagram of an example, non-limiting crosssectioned view of a fresh-air pathway throughout smoking filtration device 16001 or idle state of device 16001 in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00516] In an aspect, an idle state air pathway 1602C discloses the manner in which fresh air enters into the system at an idle state of device 16001.

[00517] In an aspect, device 16001 in the idle state allows air to enter through the idle air intake pathway 1602C. In an aspect, fresh air can enter through an opening through the vented holder exhaust orifice referenced as fresh-air intake cartridge inlet orifice 1327 and the air travels into the heating tube to supply fresh air to the smoking media tip in order to maintain activation of the smoking media tip. The fresh-air intake cartridge inlet orifice 1327 can help duct fresh-air from the fresh air intake orifice on the atrium into the valve cartridge cavity, ensuring there is no loss of suction. In another aspect, the fresh air can be regulated through the fresh-air intake pathway via a flexing open of hollowed fresh-air intake valve 1326C, which cracks open based on application of sufficient pressure. In the idle state the fresh air passes across hollowed fresh-air intake valve 1326C and through vented-holder cartridge exhaust orifice 1330 which allows exhaled and fresh air to be introduced into the heating tube cavity and subsequently into the filtration cavity.

[00518] The vented-holder cartridge exhaust orifice 1330 can prevent fresh air from being pushed into the non-heatable smoking media (e.g., filter portion of a cigarette or rolled cigarette). In another aspect, the fresh air can travel through heating tube cavity 1206 (e.g., a hollow cavity of the heating tube) which allows the fresh air to pass around the smoking media and into the tip of the smoking media which prevents the smoking media from self-extinguishing. Subsequently, the fresh air can pass through filter inlet connector leak-path 940 which is an air pathway that connects the ignition block leak-path to the filter inlet plenum. The air pathway continues to travel into the inlet plenum 1804 which is an empty cavity space within the filter subassembly. From that point, the fresh air can travel through adsorptive filter section 612 which sits between the absorptive media separating fabric and the carbon fabric within the filter shell. In another aspect, fresh air can travel through a pleated media cavity 1803 within the filter. Furthermore, in an aspect, the fresh air can pass through the exhaust plenum 1816 which is an empty cavity space within the filter subassembly that provides a large area for fresh air to diffuse and exit the filter.

[00519] In yet another aspect, the filtered fresh air can exit the filter via filter outlet connector cavity 1328. The filter outlet connector 1328 is an air space between the filter outlet and the fan/air blower 502, which allows fresh air to enter into the fan/air blower 502. Furthermore, the filtered fresh air can evacuate into the external environment (e.g., atmosphere) after passing through the fan/air blower 502 via device exhaust cavity 116. In an aspect, device exhaust cavity 116 is an open cavity that lacks back-pressure that may result from a loss of fan suction. As such, device exhaust cavity 116 can prevent thermal energy of filtered fresh air from heating up the electronic portion of the device. In yet another non-limiting embodiment, device exhaust cavity 116 can duct directly from the fan outlet to an extrusion on the unibody that isolates the path of the filtered secondhand smoke away from the general electronics area. In yet another aspect, electronics subframe exhaust orifice 916 allows the device exhaust from the outlet of fan/air blower 502 to passively diffuse out into the atmosphere. Furthermore, electronics subframe exhaust orifice 916 allows the device exhaust to diffuse into the atmosphere. The electronics subframe exhaust orifice 916 can prevent a buildup of heat and any residual moisture within the electronics area which improves the conditions for the electronics to function.

[00520] Turning now to FIG. 16J, illustrated is a diagram of an example, non-limiting top perspective view of a smoking filtration device 1600 J including more than one user interface, sealed side panels of the unibody, atrium side panels, a hinged filter access plate, and other configurable components in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00521] In an aspect, smoking filtration device 1600 J can include first user interface 1610A, second user interface 1610B, sealed device side panel portion 1612, sealed atrium panel portion 1613, and finger relief indentation 1614. In an instance, first user interface 1610A and second user interface 1610B can be a user interface such as a display screen (e.g., LED screen) or other modality configured to render information for presentation to a user. In other non-limiting embodiments, more than one UI PCB 1424 may render different information at each respective UI display. For instance, first user interface 1610A can render information such as whether the igniter is on, the device is on, or fan is powered on) and second user interface 1610B can render more permanent or static device status information such as filter information, battery information, or general error information. In an aspect, the information rendered on a particular user interface display can correspond to a likely predicted relevancy of the user viewing such display. For instance, a user viewing a display positioned next to the filter may likely seek acquisition of information about the filter or a user viewing a display positioned by the mouthpiece may seek acquisition of information about ignition of the smoking media or power supplied to the device. In a non-limiting embodiment, first user interface 1610A can be located on the top portion of the UI PCB 1424 and viewable at the topside portion of device 1600 J. Second user interface 1610B can be viewable at a backside portion of device 1600 J.

[00522] In an aspect, both first user interface 1610A and second user interface 1610B can allow users to view a range of information disclosed herein (e.g. FIG. 3) from different locations of nonlimiting device 1600 J. As such, the placement of multiple user interfaces at various locations of device 1600 J provides a functional ergonomic user experience such that a user can operate the device via an intended workflow and simultaneously view content rendered on a user interface. For instance, a user can perform an inhalation event via detachable mouthpiece 102 and consume information (e.g., read the on-off burn status indicator light) presented via first user interface 1610A while using the device. In another instance, while a user changes the filter cartridge or charges device 1600 J, the user can view information (e.g., filter status, battery power level, etc.) presented via second user interface 1610B. [00523] In another aspect, device 1600 J can be configured to include a back panel portion user interface configured to include a brand moniker such as a logo or symbol which may also be configured as an exhaust vent or component of an exhaust vent. Furthermore, the back panel user interface portion of device 1600 J can be incorporated or manufactured within device 1600 J after the electronics are integrated within the device. Similarly, the user interface sub-assembly on the top portion of device 1600 J can be integrated after the electronics are installed such that an alignment between the user interface subassembly and the electronics are achieved.

[00524] In yet another aspect, device 1600J can include sealed device side panels portion 1612 configured to seal around the device internal components via a unibody mating mechanism that firmly affixes the side panels to other exterior panels of the device to achieve seamless unibody continuity. Not only can the sealed device side panel portion 1612 provide an aesthetic visual benefit to users but also protects internal device components from weather damage (e.g., water, denting, etc.). In yet another aspect, sealed device side panel portion 1612 are interchangeable such that the panels can integrate with other exterior panels on either side of device 1600 J. Furthermore, the electronics or core components within the device can be assembled or tested prior to being sealed based on a non-limiting method of manufacture. Furthermore, the inner surface of the sealed device side panels may contain extrusions (e.g., grooves) which can act as a shallow cavity to encompass device internal components to allow the device to conserve space while allowing for a sleek protective covering.

[00525] As with the side panels, device 1600J can also include sealed atrium panel portion 1613 that is configured to seal around portions of atrium 104. Not only can the sealed atrium panel portion 1613 provide an aesthetic visual benefit to users but also protects internal device components from weather damage (e.g., water, denting, etc.). In yet another aspect, sealed atrium panel portion 1613 are interchangeable such that the panels can integrate with other exterior panels on either side of atrium 104. Furthermore, the electronics or core components within the device can be assembled or tested prior to being sealed based on a non-limiting method of manufacture.

[00526] Also included in non-limiting embodiment device 1600J is finger relief indentation 1614 configured to allow for the unlatching of a filter hinge via a finger pull mechanism. In an aspect, the finger relief indentation 1614 provides a region for finger insertion and where the finger can achieve sufficient leverage to unhinge a filter hinge portion of a hinged filter access plate that retains the filter cartridge. In other non-limiting embodiments, the atrium 104 of device 1600J can house a removable valve cartridge. Furthermore, device 1600J and other non-limiting device embodiments disclosed herein can be configured to communicatively couple with a smart device (e.g., smart phone, smart watch, payment terminal, door access terminal, tablet, etc) via a communication technology (e.g., short-range wireless technology standard or protocol such as Bluetooth or NFC).

[00527] As such, a smart device communicatively coupled to device 1600 J can control device 1600J (e.g., enable device functionality), transmit or receive data to or from device 1600J (e.g., analytics), and perform other smart functions. In another aspect, device 1600 J can utilize a method for tracking filter life of the filter cartridge using a filter RFID or NFC tag as a means of determining filter life based on an extrapolation of data and presenting such information at any one or more user interface. In yet another aspect, device 1600 J can execute applications (e.g., device applications configured to communicate with smartphone applications or server applications) where such applications can generate user profiles associated with device 1600J. In such aspects, users can switch between profiles to adjust settings and configurations of device 1600 J based on a target user preference. The NFC can be used to receive from device components other device statistics such as amount of filters consumed, unique identifiers for filters consumed, number of lifetime sessions, number of filter reorders via NFC, and other such statistics.

[00528] In another aspect, device 1600 J can be configured to interact with various smoking media types such as custom smoking media having variable length non-heatable smoking mediaportions. Furthermore, device 1600J can employ a mechanism (E.g., button) that indicates device 1600J use of a custom sized smoking media item. For instance, the smoking media item can include a long not- heatable smoking media portion which reduces the portion of the smoking media which can contain the active ingredient. As such, different smoking media items can include different doses of active ingredient based on a user preference. Furthermore, the sensor mechanisms of device 1600J (e.g., detection sensors that detect temperature differences between thermistor components) can be adjusted to end a burning operation based on the particular sized (e.g., longer or shorter smoking media not-heatable portion size) smoking media item inserted within device 1600J). For instance, control PCB 404 can trigger the fan to turn off and extinguish a smoking media item burning based on detection of a target temperature value or value corresponding to the temperature differentials between the respective portions of a particularly sized smoking media item. As such, the burning of a smoking media item, regardless of size (e.g., length of non-heatable smoking media within the smoking media) can be extinguished based on a determination of temperature differential that indicates the smoking media item has burned down to the non-heatable smoking media.

[00529] Turning now to FIG. 16K, illustrated is a diagram of an example, non-limiting bottom perspective view of a smoking filtration device 1600K including a hinged filter access plate, a removable igniter assembly, and a flip-up igniter interaction cap in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00530] In an aspect, device 1600K can include hinged filter access plate 1624 that is an access plate configured to enclose the filter cartridge within device 1600K. Furthermore, hinged filter access plate 1624 can be located on the bottom of device 1600K thus allowing the filter cartridge insertion from the bottom of the device. In another aspect, hinged filter access plate 1624 is not attached to the filter cartridge directly therefore enabling less material use for manufacture of filter cartridges and a cost effective component. Also, given the manner in which the filter cartridge inserts into the filter cavity, hinged filter access plate 1624 can abutt with the filter cartridge to create a seal against the internal gaskets when flipped (e.g., via the hinge) closed (e.g., via push force). In another aspect, hinged filter access plate 1624 can facilitate a release of the filter cartridge from the seal between the filter cartridge and internal gaskets via a pull force created upon opening hinged filter access plate 1624. In yet another aspect, hinged filter access plate 1624 can contain a cross-bar to keep the hinge fastened securely in place. Furthermore, a finger relief indentation 1614 leads to a latch on the filter hinge portion of hinged filter access plate 1624, which seats into a detent on the inside of second user interface 1610B panel.

[00531] Device 1600K can also include removable igniter assembly that can include the components of the igniter assembly disclosed throughout. However, removable igniter assembly can include an interlocking mechanism that allows the assembly to secure and hermetically seal to the internal ignition block upon insertion into the ignition cavity portion of device 1600K. Furthermore, removable igniter assembly can be easily unlocked and removed from device 1600K to allow for cleaning via the bottom end of the heating tube. Also, removable igniter assembly can integrate with device 1600k via a hook mechanism such that a hook portion of removable igniter assembly can latch onto a shelf portion of the internal cavity of device 1600k. In an aspect, removable igniter assembly employs an insertion and removal mechanism that allows an efficient servability of device 1600K (e.g., cleaning, minimal effort for insertion or removal of ignition assembly). [00532] In another aspect, device 1600k can include flip-up igniter interaction cap 1626 configured to allow for a sturdier grip of the cap portion of the removable assembly. For instance, flip- up igniter interaction cap 1626 does not include a knurled portion and instead utilizes a push and pull mechanism that interlocks or releases the flip-up igniter interaction cap 1626 from the device 1600k via a latching mechanism. Furthermore, flip-up igniter interaction cap 1626 can assist in the seating process and removal process of the removable igniter assembly via employing a hook with shelf latching mechanism.

[00533] FIG. 16L illustrates a flow diagram of an example device implemented method that facilitates an igniting of smoking media in accordance with one or more embodiments described herein. In an aspect, one or more of the components described in method 1600L herein can be electrically and/or communicatively coupled to one or more devices. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. In some implementations, at reference numeral 1610L a smoking media item can contact a detachable ignition coil within an ignition assembly. At reference numeral 1620L, a lead attached to the ignition coil can supply an electric charge to the detachable ignition coil. At reference numeral 1630L, the detachable ignition coil ignites an ignitable portion of the smoking media item.

[00534] FIG. I6M illustrates a flow diagram of an example device implemented method of removing an ignition assembly from a filtration device in accordance with one or more embodiments described herein. In an aspect, one or more of the components described in method 1600M herein can be electrically and/or communicatively coupled to one or more devices. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00535] In some implementations, at reference numeral 1610M, an ignition assembly is removed, via a release mechanism, from a receiving portion of a smoking device, wherein the ignition assembly comprises a detachable ignition plate, an ignition block, and a detachable ignition coil. At reference numeral 1620M, the detachable ignition plate is configured to disengage from a receiving portion of a smoking device via a first attachment mechanism. At reference numeral I630M, the ignition block comprises at least one female connection point configured ot engage at least one wire engaged with a battery, wherein the ignition block is attached to the detachable ignition plate via a second attachment mechanism. At reference numeral I640M, the detachable ignition coil comprises at least a protracted heating portion and a conductive lead portion, wherein the detachable ignition coil is attached, via a third attachment mechanism with the ignition plate and the ignition block at a juncture of the at least one female connection point, wherein the detachable ignition coil is configured to interface with an ignitable portion of the smoking media item.

[00536] FIG. 16N illustrates a flow diagram of an example device implemented method of communication between a filtration device and a smart device in accordance with one or more embodiments described herein. In an aspect, one or more of the components described in method 1600N herein can be electrically and/or communicatively coupled to one or more devices. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00537] In some implementations, at reference numeral 1610N, a smart device is tapped against a filtration device. At reference numeral 1620N, a wireless communication sensor of the filtration device detects the presence of the smart device within a proximal threshold distance. At reference numeral 163 ON, a processor of the filtration device generates a hyperlink based on the detecting. At 1640N, a wireless communication mechanism of the filtration device transmits the hyperlink to a data store of the smart device.

[00538] FIG. 160 illustrates a flow diagram of an example device implemented method of autoextinguishing a smoking media item in accordance with one or more embodiments described herein. In an aspect, one or more of the components described in method 16000 herein can be electrically and/or communicatively coupled to one or more devices. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00539] In some implementations, at reference numeral 16100, a top heat sensor detects a first temperature of a first region of a chamber comprising a smoking media item that burns within the chamber, wherein the chamber connects to a fresh air intake valve. At 16200, a bottom sensor detects a second temperature of a second region of the chamber. At reference numeral 16300, at least one processor communicatively coupled to the top heat sensor or the bottom heat sensor determines a temperature differential between the first temperature and the second temperature. At reference numeral 16400, the at least one processor compares the temperature differential to a target extinguishing threshold temperature differential corresponding to a temperature yield curve representing a correlation between target temperatures and amounts of consumption of the smoking media item. At reference numeral 16500 the at least one processor determines whether to supply or remove power to an aerosol moving mechanism comprising at least one of a fan, air blower, pump or compressor based on the comparison of the temperature differential to the target extinguishing threshold temperature differential. [00540] FIG. 16P illustrates a flow diagram of an example device implemented method of detecting volume of aerosol inhaled or exhaled in accordance with one or more embodiments described herein. In an aspect, one or more of the components described in method 1600P herein can be electrically and/or communicatively coupled to one or more devices. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00541] In some implementations, at reference numeral 1610P, a sensing component of a filtration device detects an amount of power supplied to an aerosol moving mechanism over a period of time. At reference numeral 1620P, a processor of the filtration device compares the amount of power supplied to an aerosol moving mechanism to a smoke evacuation threshold or a smoke inhalation threshold, wherein the smoke evacuation threshold and the smoke inhalation threshold correspond to an amount of the power supplied respectively. At reference numeral 1630P, the processor, determines an occurrence of a complete evacuation event or a complete inhalation event based on the comparison of the power supplied to the aerosol moving mechanism having a greater or equal value than the amount of the power supplied to the aerosol moving mechanism during the inhalation event or the exhalation event respectively.

[00542] FIG. 16Q illustrates a flow diagram of an example device implemented method of logging smoke data onto a filter in accordance with one or more embodiments described herein. In an aspect, one or more of the components described in method 1600Q herein can be electrically and/or communicatively coupled to one or more devices. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00543] In some implementations, at reference numeral 1610Q, a wireless communication tag is affixed to a filter cartridge of a filtration device. At reference numeral 1620Q, the processor of the filtration device provisions filter usage data sets to the wireless communication device. At reference numeral 1630Q, the wireless communication tag stores filter usage data sets for access by smart devices employing a wireless communication tag reader.

[00544] FIG. 16R illustrates a flow diagram of an example device implemented method of autoextinguishing a smoking media item in accordance with one or more embodiments described herein. In an aspect, one or more of the components described in method 1600R herein can be electrically and/or communicatively coupled to one or more devices. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity. [00545] In some implementations, at reference numeral 1610R, a heat sensor detects a region of a chamber comprising a smoking media item that burns within the chamber, wherein the chamber connects to a fresh air intake valve. At reference numeral 1620R, the at least one processor compares the temperature to a target extinguishing threshold temperature. At reference numeral 1630R, the at least one processor determines whether to supply or remove power to the aerosol moving mechanism comprising at least one of a fan, air blower, pump or compressor based on the comparison of the temperature to the target extinguishing threshold temperature.

[00546] FIG. 16S illustrates a flow diagram of an example chart 1600S comparing unfiltered emissions as compared to emissions filtered via the filtration device in accordance with one or more embodiments described herein. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00547] In an aspect, emissions of a standardized smoking media type (e.g., cigarette) were tested in a control environment (e.g., emissions detected from a burning smoking media type) and also within the filtration device environment (e.g., emission detection after the emissions were filtered via any of the non-limiting filtration device disclosed herein. The control scenario captured an unfiltered smoke stream from the burning smoking media item via a collection pad on an impinger. For the filtration device exhaust test scenario’s, the filtration device housed a filter including the filtration material stacks. The filtered aerosol stream was tested for detection by a collection pad on an impinger. In an aspect, chart 1600S depicts the data and concentrations of various chemical groups (e.g., carbonyls, volatiles, ammonia, and condensates) detected by the impinger in each of the two methods over a period of ten smoking media item sessions for each scenario.

[00548] In an aspect, reference numeral 161 OS references smoking media items (e.g., cigarettes) and the results of amounts of volatile emissions from unfiltered smoking media items versus smoking media items burned and filtered via one or more non-limiting filtration device disclosed herein. In several instances, volatile butadiene, acrylonitrile, benzene, isoprene, and toluene were substantially reduced or eliminated via filtering the smoke from a smoking media item via the filtration device. In another aspect, reference numeral 1620S references smoking media items (e.g., cigarettes) and the carbonyls emitted from an unfiltered smoking media item versus the carbonyls detected from a smoking media item burned and filtered within one or more non-limiting filtration device disclosed herein. In several instances, acetaldehyde, acrolein, crotonaldehyde, and formaldehyde were substantially reduced or eliminated via filtering the smoke from a smoking media item via the filtration device. [00549] At reference numeral 1630S, disclosed is a comparison of ammonia amounts emitted from an unfiltered smoking media item as compared to the amounts of ammonia detected from emissions of a smoking media item filtered within a non-limiting filtration device disclosed herein. In several instances, ammonia was substantially reduced or eliminated via filtering the smoke from a smoking media item via the filtration device. At reference numeral 1640S, disclosed is a comparison of condensates emitted from unfiltered smoking media as compared to condensates detected from the emissions of a smoking media item filtered via the filtration device. In several instances, nicotine was substantially reduced or eliminated via filtering the smoke from a smoking media item via the filtration device.

[00550] Turning now to FIG. 17, illustrated is a schematic block diagram illustrating a suitable operating environment 1700 in accordance with various aspects and embodiments. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00551] In order to provide a context for the various aspects of the disclosed subject matter, FIG. 17 as well as the following discussion is intended to provide a general description of a suitable environment in which the various aspects of the disclosed subject matter can be implemented. FIG. 17 illustrates a block diagram of an example, non-limiting operating environment in which one or more embodiments described herein can be facilitated. With reference to FIG. 17, a suitable operating environment 1700 for implementing various aspects of this disclosure can also include a computer 1712. The computer 1712 can also include a processing unit 1714, a system memory 1716, and a system bus 1718. The system bus 1718 couples system components including, but not limited to, the system memory 1716 to the processing unit 1714. The processing unit 1714 can be any of various available processors. Dual microprocessors and other multiprocessor architectures also can be employed as the processing unit 1714. The system bus 1718 can be any of several types of bus structure(s) including the memory bus or memory controller, a peripheral bus or external bus, and/or a local bus using any variety of available bus architectures including, but not limited to, Industrial Standard Architecture (ISA), Micro-Channel Architecture (MSA), Extended ISA (EISA), Intelligent Drive Electronics (IDE), VESA Local Bus (VLB), Peripheral Component Interconnect (PCI), Card Bus, Universal Serial Bus (USB), Advanced Graphics Port (AGP), Firewire (IEEE 394), and Small Computer Systems Interface (SCSI). [00552] The system memory 1716 can also include volatile memory 1720 and nonvolatile memory 1722. The basic input/output system (BIOS), containing the basic routines to transfer information between elements within the computer 1712, such as during start-up, is stored in nonvolatile memory 1722. By way of illustration, and not limitation, nonvolatile memory 1722 can include read only memory (ROM), programmable ROM (PROM), electrically programmable ROM (EPROM), electrically erasable programmable ROM (EEPROM), flash memory, or nonvolatile random access memory (RAM) (e.g., ferroelectric RAM (FeRAM). Volatile memory 1720 can also include random access memory (RAM), which acts as external cache memory. By way of illustration and not limitation, RAM is available in many forms such as static RAM (SRAM), dynamic RAM (DRAM), synchronous DRAM (SDRAM), double data rate SDRAM (DDR SDRAM), enhanced SDRAM (ESDRAM), Synchlink DRAM (SLDRAM), direct Rambus RAM (DRRAM), direct Rambus dynamic RAM (DRDRAM), and Rambus dynamic RAM.

[00553] Computer 1712 can also include removable/non-removable, volatile/non-volatile computer storage media. FIG. 17 illustrates, for example, a disk storage 1724. Disk storage 1724 can also include, but is not limited to, devices like a magnetic disk drive, floppy disk drive, tape drive, Jaz drive, Zip drive, LS-100 drive, flash memory card, or memory stick. The disk storage 1724 also can include storage media separately or in combination with other storage media including, but not limited to, an optical disk drive such as a compact disk ROM device (CD-ROM), CD recordable drive (CD-R Drive), CD rewritable drive (CD-RW Drive) or a digital versatile disk ROM drive (DVD-ROM). To facilitate connection of the disk storage 1724 to the system bus 1718, a removable or non-removable interface is typically used, such as interface 1726. FIG. 17 also depicts software that acts as an intermediary between users and the basic computer resources described in the suitable operating environment 1700. Such software can also include, for example, an operating system 1728. Operating system 1728, which can be stored on disk storage 1724, acts to control and allocate resources of the computer 1712.

[00554] System applications 1730 take advantage of the management of resources by operating system 1728 through program modules 1732 and program data 1734, e.g., stored either in system memory 1716 or on disk storage 1724. It is to be appreciated that this disclosure can be implemented with various operating systems or combinations of operating systems. A user enters commands or information into the computer 1712 through input device(s) 1736. Input devices 1736 include, but are not limited to, a pointing device such as a mouse, trackball, stylus, touch pad, keyboard, microphone, joystick, game pad, satellite dish, scanner, TV tuner card, digital camera, digital video camera, web camera, and the like. These and other input devices connect to the processing unit 1714 through the system bus 1718 via interface port(s) 1738. Interface port(s) 1738 include, for example, a serial port, a parallel port, a game port, and a universal serial bus (USB). Output device(s) 1740 use some of the same type of ports as input device(s) 1736. Thus, for example, a USB port can be used to provide input to computer 1712, and to output information from computer 1712 to an output device 1740. Output adapter 1742 is provided to illustrate that there are some output devices 1740 like monitors, speakers, and printers, among other output devices 1740, which require special adapters. The output adapters 1742 include, by way of illustration and not limitation, video and sound cards that provide a means of connection between the output device 1740 and the system bus 1718. It should be noted that other devices and/or systems of devices provide both input and output capabilities such as remote computer(s) 1744.

[00555] Computer 1712 can operate in a networked environment using logical connections to one or more remote computers, such as remote computer(s) 1744. The remote computer(s) 1744 can be a computer, a server, a router, a network PC, a workstation, a microprocessor based appliance, a peer device or other common network node and the like, and typically can also include many or all of the elements described relative to computer 1712. For purposes of brevity, only a memory storage device 1746 is illustrated with remote computer(s) 1744. Remote computer(s) 1744 is logically connected to computer 1712 through a network interface 1748 and then physically connected via communication connection 1750. Network interface 1748 encompasses wire and/or wireless communication networks such as local-area networks (LAN), wide-area networks (WAN), cellular networks, etc. LAN technologies include Fiber Distributed Data Interface (FDDI), Copper Distributed Data Interface (CDDI), Ethernet, Token Ring and the like. WAN technologies include, but are not limited to, point-to- point links, circuit switching networks like Integrated Services Digital Networks (ISDN) and variations thereon, packet switching networks, and Digital Subscriber Lines (DSL). Communication connection(s) 1750 refers to the hardware/ software employed to connect the network interface 1748 to the system bus 1718. While communication connection 1750 is shown for illustrative clarity inside computer 1712, it can also be external to computer 1712. The hardware/software for connection to the network interface 1748 can also include, for exemplary purposes only, internal and external technologies such as, modems including regular telephone grade modems, cable modems and DSL modems, ISDN adapters, and Ethernet cards. [00556] Turning now to FIG. 18, illustrated is a schematic block diagram of a sample-computing environment in accordance with various aspects and embodiments. Repetitive description of like elements employed in other embodiments described herein is omitted for sake of brevity.

[00557] Referring now to FIG. 18, there is illustrated a schematic block diagram of a computing environment 1800 in accordance with this disclosure. The system 1800 includes one or more client(s) 1802 (e.g., laptops, smart phones, PDAs, media players, computers, portable electronic devices, tablets, any smoke filtering device disclosed herein, and the like). The client(s) 1802 can be hardware and/or software (e.g., threads, processes, computing devices). The system 1800 also includes one or more server(s) 1804. The server(s) 1804 can also be hardware or hardware in combination with software (e.g., threads, processes, computing devices). The servers 1804 can house threads to perform transformations by employing aspects of this disclosure, for example. One possible communication between a client 1802 and a server 1804 can be in the form of a data packet transmitted between two or more computer processes wherein the data packet may include video data. The data packet can include a metadata, e.g., associated contextual information, for example. The system 1800 includes a communication framework 1806 (e.g., a global communication network such as the Internet, or mobile network(s)) that can be employed to facilitate communications between the client(s) 1802 and the server(s) 1804.

[00558] Communications can be facilitated via a wired (including optical fiber) and/or wireless technology. The client(s) 1802 include or are operatively connected to one or more client data store(s) 1808 that can be employed to store information local to the client(s) 1802 (e.g., associated contextual information). Similarly, the server(s) 1804 are operatively include or are operatively connected to one or more server data store(s) 1810 that can be employed to store information local to the servers 1804. In one embodiment, a client 1802 can transfer an encoded file, in accordance with the disclosed subject matter, to server 1804. Server 1804 can store the file, decode the file, or transmit the file to another client 1802. It is to be appreciated, that a client 1802 can also transfer an uncompressed file to a server 1804 and server 1804 can compress the file in accordance with the disclosed subject matter. Likewise, server 1804 can encode video information and transmit the information via communication framework 1806 to one or more clients 1802.

[00559] The present disclosure may be a system, a method, an apparatus and/or a computer program product at any possible technical detail level of integration. The computer program product can include a computer readable storage medium (or media) having computer readable program instructions thereon for causing a processor to carry out aspects of the present disclosure. The computer readable storage medium can be a tangible device that can retain and store instructions for use by an instruction execution device. The computer readable storage medium can be, for example, but is not limited to, an electronic storage device, a magnetic storage device, an optical storage device, an electromagnetic storage device, a semiconductor storage device, or any suitable combination of the foregoing. A non-exhaustive list of more specific examples of the computer readable storage medium can also include the following: a portable computer diskette, a hard disk, a random access memory (RAM), a read-only memory (ROM), an erasable programmable read-only memory (EPROM or Flash memory), a static random access memory (SRAM), a portable compact disc read-only memory (CD-ROM), a digital versatile disk (DVD), a memory stick, a floppy disk, a mechanically encoded device such as punch-cards or raised structures in a groove having instructions recorded thereon, and any suitable combination of the foregoing. A computer readable storage medium, as used herein, is not to be construed as being transitory signals per se, such as radio waves or other freely propagating electromagnetic waves, electromagnetic waves propagating through a waveguide or other transmission media (e.g., light pulses passing through a fiber-optic cable), or electrical signals transmitted through a wire.

[00560] Computer readable program instructions described herein can be downloaded to respective computing/processing devices from a computer readable storage medium or to an external computer or external storage device via a network, for example, the Internet, a local area network, a wide area network and/or a wireless network. The network can comprise copper transmission cables, optical transmission fibers, wireless transmission, routers, firewalls, switches, gateway computers and/or edge servers. A network adapter card or network interface in each computing/processing device receives computer readable program instructions from the network and forwards the computer readable program instructions for storage in a computer readable storage medium within the respective computing/processing device. Computer readable program instructions for carrying out operations of the present disclosure can be assembler instructions, instruction-set-architecture (ISA) instructions, machine instructions, machine dependent instructions, microcode, firmware instructions, state-setting data, configuration data for integrated circuitry, or either source code or object code written in any combination of one or more programming languages, including an object oriented programming language such as Smalltalk, C++, or the like, and procedural programming languages, such as the "C" programming language or similar programming languages. The computer readable program instructions can execute entirely on the user's computer, partly on the user's computer, as a stand-alone software package, partly on the user's computer and partly on a remote computer or entirely on the remote computer or server. In the latter scenario, the remote computer can be connected to the user's computer through any type of network, including a local area network (LAN) or a wide area network (WAN), or the connection can be made to an external computer (for example, through the Internet using an Internet Service Provider). In some embodiments, electronic circuitry including, for example, programmable logic circuitry, field-programmable gate arrays (FPGA), or programmable logic arrays (PLA) can execute the computer readable program instructions by utilizing state information of the computer readable program instructions to personalize the electronic circuitry, in order to perform aspects of the present disclosure.

[00561] Aspects of the present disclosure are described herein with reference to flowchart illustrations and/or block diagrams of methods, apparatus (systems), and computer program products according to embodiments of the disclosure. It will be understood that each block of the flowchart illustrations and/or block diagrams, and combinations of blocks in the flowchart illustrations and/or block diagrams, can be implemented by computer readable program instructions. These computer readable program instructions can be provided to a processor of a general purpose computer, special purpose computer, or other programmable data processing apparatus to produce a machine, such that the instructions, which execute via the processor of the computer or other programmable data processing apparatus, create means for implementing the functions/acts specified in the flowchart and/or block diagram block or blocks. These computer readable program instructions can also be stored in a computer readable storage medium that can direct a computer, a programmable data processing apparatus, and/or other devices to function in a particular manner, such that the computer readable storage medium having instructions stored therein comprises an article of manufacture including instructions which implement aspects of the function/act specified in the flowchart and/or block diagram block or blocks. The computer readable program instructions can also be loaded onto a computer, other programmable data processing apparatus, or other device to cause a series of operational acts to be performed on the computer, other programmable apparatus or other device to produce a computer implemented process, such that the instructions which execute on the computer, other programmable apparatus, or other device implement the functions/acts specified in the flowchart and/or block diagram block or blocks.

[00562] The flowchart and block diagrams in the Figures illustrate the architecture, functionality, and operation of possible implementations of systems, methods, and computer program products according to various embodiments of the present disclosure. In this regard, each block in the flowchart or block diagrams can represent a module, segment, or portion of instructions, which comprises one or more executable instructions for implementing the specified logical function(s). In some alternative implementations, the functions noted in the blocks can occur out of the order noted in the Figures. For example, two blocks shown in succession can, in fact, be executed substantially concurrently, or the blocks can sometimes be executed in the reverse order, depending upon the functionality involved. It will also be noted that each block of the block diagrams and/or flowchart illustration, and combinations of blocks in the block diagrams and/or flowchart illustration, can be implemented by special purpose hardware-based systems that perform the specified functions or acts or carry out combinations of special purpose hardware and computer instructions.

[00563] While the subject matter has been described above in the general context of computerexecutable instructions of a computer program product that runs on a computer and/or computers, those skilled in the art will recognize that this disclosure also can or can be implemented in combination with other program modules. Generally, program modules include routines, programs, components, data structures, etc. that perform particular tasks and/or implement particular abstract data types. Moreover, those skilled in the art will appreciate that the inventive computer-implemented methods can be practiced with other computer system configurations, including single-processor or multiprocessor computer systems, mini-computing devices, mainframe computers, as well as computers, hand-held computing devices (e.g., PDA, phone), microprocessor-based or programmable consumer or industrial electronics, and the like. The illustrated aspects can also be practiced in distributed computing environments in which tasks are performed by remote processing devices that are linked through a communications network. However, some, if not all aspects of this disclosure can be practiced on standalone computers. In a distributed computing environment, program modules can be located in both local and remote memory storage devices.

[00564] As used in this application, the terms “component,” “system,” “platform,” “interface,” and the like, can refer to and/or can include a computer-related entity or an entity related to an operational machine with one or more specific functionalities. The entities disclosed herein can be either hardware, a combination of hardware and software, software, or software in execution. For example, a component can be, but is not limited to being, a process running on a processor, a processor, an object, an executable, a thread of execution, a program, and/or a computer. By way of illustration, both an application running on a server and the server can be a component. One or more components can reside within a process and/or thread of execution and a component can be localized on one computer and/or distributed between two or more computers. In another example, respective components can execute from various computer readable media having various data structures stored thereon. The components can communicate via local and/or remote processes such as in accordance with a signal having one or more data packets (e.g., data from one component interacting with another component in a local system, distributed system, and/or across a network such as the Internet with other systems via the signal). As another example, a component can be an apparatus with specific functionality provided by mechanical parts operated by electric or electronic circuitry, which is operated by a software or firmware application executed by a processor. In such a case, the processor can be internal or external to the apparatus and can execute at least a part of the software or firmware application. As yet another example, a component can be an apparatus that provides specific functionality through electronic components without mechanical parts, wherein the electronic components can include a processor or other means to execute software or firmware that confers at least in part the functionality of the electronic components. In an aspect, a component can emulate an electronic component via a virtual machine, e.g., within a cloud computing system.

[00565] In addition, the term “or” is intended to mean an inclusive “or” rather than an exclusive “or.” That is, unless specified otherwise, or clear from context, “X employs A or B” is intended to mean any of the natural inclusive permutations. That is, if X employs A; X employs B; or X employs both A and B, then “X employs A or B” is satisfied under any of the foregoing instances. Moreover, articles “a” and “an” as used in the subject specification and annexed drawings should generally be construed to mean “one or more” unless specified otherwise or clear from context to be directed to a singular form. As used herein, the terms “example” and/or “exemplary” are utilized to mean serving as an example, instance, or illustration. For the avoidance of doubt, the subject matter disclosed herein is not limited by such examples. In addition, any aspect or design described herein as an “example” and/or “exemplary” is not necessarily to be construed as preferred or advantageous over other aspects or designs, nor is it meant to preclude equivalent exemplary structures and techniques known to those of ordinary skill in the art. [00566] As it is employed in the subject specification, the term “processor” can refer to substantially any computing processing unit or device comprising, but not limited to, single-core processors; singleprocessors with software multithread execution capability; multi -core processors; multi-core processors with software multithread execution capability; multi-core processors with hardware multithread technology; parallel platforms; and parallel platforms with distributed shared memory. Additionally, a processor can refer to an integrated circuit, an application specific integrated circuit (ASIC), a digital signal processor (DSP), a field programmable gate array (FPGA), a programmable logic controller (PLC), a complex programmable logic device (CPLD), a discrete gate or transistor logic, discrete hardware components, or any combination thereof designed to perform the functions described herein. Further, processors can exploit nano-scale architectures such as, but not limited to, molecular transistors, switches and gates, in order to optimize space usage or enhance performance of user equipment. A processor can also be implemented as a combination of computing processing units. In this disclosure, terms such as “store,” “storage,” “data store,” data storage,” “database,” and substantially any other information storage component relevant to operation and functionality of a component are utilized to refer to “memory components,” entities embodied in a “memory,” or components comprising a memory. It is to be appreciated that memory and/or memory components described herein can be either volatile memory or nonvolatile memory, or can include both volatile and nonvolatile memory. By way of illustration, and not limitation, nonvolatile memory can include read only memory (ROM), programmable ROM (PROM), electrically programmable ROM (EPROM), electrically erasable ROM (EEPROM), flash memory, or nonvolatile random access memory (RAM) (e.g., ferroelectric RAM (FeRAM). Volatile memory can include RAM, which can act as external cache memory, for example. By way of illustration and not limitation, RAM is available in many forms such as synchronous RAM (SRAM), dynamic RAM (DRAM), synchronous DRAM (SDRAM), double data rate SDRAM (DDR SDRAM), enhanced SDRAM (ESDRAM), Synchlink DRAM (SLDRAM), direct Rambus RAM (DRRAM), direct Rambus dynamic RAM (DRDRAM), and Rambus dynamic RAM (RDRAM). Additionally, the disclosed memory components of systems or computer-implemented methods herein are intended to include, without being limited to including, these and any other suitable types of memory.

[00567] What has been described above include mere examples of systems and computer- implemented methods. It is, of course, not possible to describe every conceivable combination of components or computer-implemented methods for purposes of describing this disclosure, but one of ordinary skill in the art can recognize that many further combinations and permutations of this disclosure are possible. Furthermore, to the extent that the terms “includes,” “has,” “possesses,” and the like are used in the detailed description, claims, appendices and drawings such terms are intended to be inclusive in a manner similar to the term “comprising” as “comprising” is interpreted when employed as a transitional word in a claim.

[00568] The descriptions of the various embodiments have been presented for purposes of illustration, but are not intended to be exhaustive or limited to the embodiments disclosed. Many modifications and variations will be apparent to those of ordinary skill in the art without departing from the scope and spirit of the described embodiments. The terminology used herein was chosen to best explain the principles of the embodiments, the practical application or technical improvement over technologies found in the marketplace, or to enable others of ordinary skill in the art to understand the embodiments disclosed herein.