The present invention relates to incorporation of electronic devices into textiles. Fabric is typically woven or knitted using yarn, which is commonly formed from twisted fibres of materials such as wool or nylon. It has previously been proposed to utilise yarns which incorporate electronic devices.

An example of such a yarn is disclosed in US 2009/139,198. The yarn of US 2009/139,198 comprises electronic components housed in resin, with conductive devices twisted around the resin to form the outer surface of the yarn. This may result in the conductive devices being exposed to the external environment, and may result in damage to the conductive devices. Another example of such a yarn is disclosed in GB 2529900. The yarn of GB

2529900 comprises a series of electronic devices held on carriers, with each of the electronic devices being housed in an individual pod of resin. The series of electronic devices are connected by conductive interconnects. The individual pods of resin are held within packing fibres, which are in turn held within a retaining sleeve formed of wound or braided threads.

Although the yarn of GB 2529900 provides an electronically functional yarn which can be incorporated into a garment, there are nevertheless disadvantages associated with such yarn. In particular, when the yarn is bent, gaps can appear between packaging fibres and also between the fibres that form the retaining sleeve. This may result in the conductive interconnects that extend between electronic devices being exposed to the external environment, and may result in damage to the conductive interconnects. Furthermore, the presence of packaging fibres and a retaining sleeve can interfere with the function performed by the electronic device.

There has now been devised a fibre for incorporation into a textile, a textile incorporating such a fibre, and methods of manufacturing a fibre and a textile, which overcome or substantially mitigate the aforementioned and/or other disadvantages associated with the prior art.

According to a first aspect of the present invention there is provided a fibre for incorporation into a textile, the fibre comprising an electronic device, and an electrical conductor connected to the electronic device and extending along a longitudinal axis of the fibre, wherein the electronic device and the electrical conductor are encapsulated by a unitary body of at least a first material. The fibre according to the first aspect of the present invention is beneficial principally as the electronic device and the electrical conductor are encapsulated by a unitary body of at least a first material, such as a plastics material. In particular, by encapsulating the electronic device and the electrical conductor in a unitary body of at least a first material, the electrical conductor may be protected from the external environment by, for example, reducing the risk of the electrical conductor being exposed to the external environment when a fibre is manipulated or bent during use. For example, the electronic device and the electrical conductor may be hermetically sealed relative to the surroundings by the unitary body. The unitary body may comprise more than one material, but those materials are not separable from each other, such that a unitary body is formed.

The unitary body may comprise a first material that encapsulates both the electronic device and the electrical conductor, or a first material that encapsulates the electronic device that is bonded to a second material that encapsulates the conductor, thereby forming a unitary body that encapsulates both the electronic device and the electrical conductor. This arrangement may remove the need for use of further materials to enclose the electronic device, which may result in a structure which is simpler and less expensive to manufacture than yarns incorporating electronic devices which are known in the prior art. Alternatively, the unitary body may comprise a plurality of materials, eg in a layered structure, in order to provide specific desired properties. The fibre may have a length which is larger than its width and/or diameter. The fibre may have a length which is at least 5 times, at least 10 times, at least 25 times, at least 50 times, at least 100 times, at least 250 times, at least 500 times, at least 750 times, or at least 1000 times larger than its width or diameter. The fibre may have a length which is at least 5 times, at least 10 times, at least 25 times, at least 50 times, at least 100 times, at least 250 times, at least 500 times, at least 750 times, or at least 1000 times larger than a length of the electronic device. At least a portion of the fibre may comprise a cross-sectional area of substantially constant shape along its length. By cross-sectional area is meant the area visible when a cut is taken substantially orthogonal to a longitudinal axis of the fibre. At least a portion of the fibre may comprise a circular or polygonal, for example triangular, square, rectangular, pentagonal etc, cross-sectional area. At least a portion of the fibre may comprise a substantially constant cross-sectional area, for example a cross-sectional area of constant size and/or shape.

The unitary body may comprise an inner layer, eg of at least a first material, which may be in contact with the electronic device and/or the conductor, and an outer layer that extends about the inner layer. The inner layer may be adapted to protect the electronic device and/or the conductor, and hence may have a greater rigidity, a greater thermal resistance and/or a greater electrical resistance relative to the outer layer. The material of the outer layer may be chosen as a material having an inherently greater flexibility relative to the inner layer, thereby enabling the outer layer to have a greater thickness relative to the inner layer, for example.

During manufacture, the inner layer of the unitary body may be cured initially, before the outer layer is applied and then cured. The inner layer may therefore be cured fully, in order to reduce the risk of uncured portions providing weaknesses in the unitary body, before the outer body is applied and then cured. The inner layer may be cured in any conventional manner, eg by heat or by exposure to electromagnetic radiation, eg UV radiation. The material of the inner layer may therefore by at least translucent or transparent. The inner layer may, for example, comprise epoxy resin. The outer layer may, for example, comprise any of polyurethane or liquid silicon elastomer. However, other materials are also contemplated.

The fibre may comprise first and second free ends. The fibre may comprise a cross-sectional area of substantially constant size and/or shape between the first and second free ends. The fibre may comprise a region of increased cross- sectional area in at least a region of the electronic device, relative to the cross- sectional area of the remainder of the fibre, eg the cross-section along the majority of the conductor. For example, the first material may comprise an increased thickness in a region of the electronic device relative to the thickness of the remainder of the fibre. A thicker region of the first material may be beneficial as this may provide increased structural rigidity and/or increased resistance to heat/pressure in the region of the electronic device.

The fibre may be elongate and substantially cylindrical in form. The fibre may have a global form which is substantially similar to, for example, a wire or other thin and elongate members. The fibre may have a length of at least 10cm, at least 25cm, at least 50 cm, or at least 100cm. The fibre may have a width or diameter of at most 10ΟΟμιη, at most 900μιη, at most 800μιη, at most 500μιη, or at most 200μιη. The electronic device may have a width and/or height and/or depth of at most 2000μιη, at most 700μιη, at most ΘΟΟμιη, at most 500μιη, at most 300μιη, or at most 10Ομιη. The fibre may have a width or diameter which is at least 200%, at least 300%, at least 400%, or at least 500% of the width or diameter of the electrical conductor.

The fibre may comprise a filament fibre, for example a fibre of continuous or near continuous length. The device may comprise a staple fibre, for example a fibre of discrete length. A staple fibre may comprise a filament fibre which has been cut into discrete lengths. The volume of the first material may be at least 50%, at least 60 %, at least 70%, at least 80%, or at least 90%, of the total volume of the fibre.

The unitary body may form at least a portion of an outermost surface of the fibre. The unitary body may form at least a portion of the perimeter of a cross-section taken orthogonally relative to a longitudinal axis of the fibre, for example at least a portion of the circumference of a cross-section of the fibre. The unitary body may form the entirety of an outermost surface of the fibre. The unitary body may define a substantially continuous surface. For example, the unitary body may define a surface which is uninterrupted by gaps or holes or the like. The unitary body may define the outer surface of a cylinder. The unitary body may define a substantially continuous outer surface of the fibre. The electronic device may encapsulated by a first body of a first material, and at least a portion of the electrical conductor may be encapsulated by a second body of a second material. The electronic device and the electrical conductor may be encapsulated by a first body of a first material and a second body of a second material. For example, the electronic device may be encapsulated by a first body of a first material and the electrical conductor may be encapsulated by a second body of a second material. At least a portion of the electrical conductor may be encapsulated by a first body of a first material and/or at least a portion of the electrical conductor may be encapsulated by a second body of a second material. The first material and the second material may comprise different material properties. The first material may have a higher thermal resistance than the second material, or vice versa. The first material may have a higher electrical conductivity than the second material, or vice versa. The unitary body may encapsulate the electronic device and/or the conductor, such that there is no air gap between the electronic device and/or the conductor, and the unitary body. The fibre may be structured such that there is no air gap between the electronic device and/or the conductor, and an outer surface of the fibre. Solid material may extend between the electronic device and an outer surface of the fibre. For example, the unitary body may extend between the electronic device and an outer surface of the fibre. Such an arrangement may be beneficial as the removal of air gaps from the material structure of the fibre may improve transmission of signals, for example thermal signals, to the electronic device from the external environment of the fibre.

The fibre may be flexible in nature. The fibre may be malleable or resiliently deformable. The unitary body may comprise a flexible material or a rigid material.

The fibre may comprise a reinforcing member for reinforcing the fibre. The reinforcing member may comprise a thread extending along a longitudinal axis of the fibre. The reinforcing member may comprise a thread extending along substantially the entirety of a longitudinal axis of the fibre, for example at least 70%, at least 80%, at least 90%, or 100% of a longitudinal axis of the fibre. The reinforcing member may comprise a non-electrically conducting material, for example a material which is significantly less electrically conductive than the electrical conductor, for example having less than 1 % of the electrical conductivity of the electrical conductor. The reinforcing member may be a separate

component to the electrical conductor.

The reinforcing member may comprise a plastics material. The reinforcing member may comprise a thermoplastic material. The reinforcing material may comprise a synthetic polymer. The reinforcing member may, for example, comprise polyester, nylon, liquid crystal polymers, aramid fibre. Suitable commercially available materials include Vectran®, Kevlar®, Zylon® and monofilament.

The first material may comprise a resin, for example a plant-derived or synthetic resin. The resin will typically be a plastics material, and may be a thermoplastic material. The first material may be thermally conductive, and may be more thermally conductive than conventional yarn. For example, the first material may have a thermal conductivity of at least 0.1 W/(m- K). The first material may comprise any of: silicone elastomer; epoxy resin; polyester resin; polyurethane; or acrylic, for example.

The first material may fix the relative positions of the electronic device and/or the electrical conductor and/or the reinforcing member. The electrical conductor may comprise a flexible material, which may be a malleable material. The electrical conductor may be fixed to the reinforcing member, for example prior to

encapsulation by the first material. The electrical conductor may be wound around the reinforcing element, for example in a helical fashion. This may be beneficial as an applied stretching force may stretch the fibre without placing stress on the electrical conductor. For example, the wound nature of the electrical conductor may allow for expansion of the electrical conductor along a longitudinal axis of the fibre without causing deformation of the electrical conductor. The electrical conductor may comprise a wire, for example an electrically conducting wire. The electrical conductor may comprise copper, and may, for example, comprise copper wire.

The electrical conductor may extend along substantially the entirety of the length of the fibre, for example between first and second free ends of the fibre. The electrical conductor may, for example, comprise an antenna for an RFID device.

The electronic device may comprise a sensor, such as a temperature sensor, an accelerometer and/or a proximity sensor. The electronic device may comprise an integrated circuit, which may function as a controller. The electronic device may comprise a transmitter and/or a receiver of electrical or electromagnetic signals, or other type of input and/or output device, such as a light sensor and/or a light source, for example an LED. The electronic device may comprise an RFID (Radio Frequency ID) chip or an NFC (Near-Field Communication) chip. The electronic device may comprise memory for storing data, and may be readable and/or writable, as required by the particular application. The fibre may comprise a plurality of electronic devices, and may for example, comprise a plurality of electronic devices spaced apart along the length of the fibre. Each of the plurality of electronic devices may be connected to at least one electrical conductor. The plurality of electronic devices may comprise electronic devices having different sizes and/or different functions.

Each electrical conductor may connect to only one electronic device, and may comprise a connection at one end thereof for connection to an output device not encapsulated by the first material.

Each electrical conductor may connect to a plurality of electronic devices, each of the plurality of electronic devices being encapsulated by the first material.

The plurality of electronic devices and the electrical conductors may be

encapsulated by the unitary body. The electrical conductors may be encapsulated by the unitary body along the entire length of the electrical conductors. In such a fashion, an electrical conductor extending between electronic devices may be completely encapsulated by the unitary body. Where the fibre contains a plurality of electrical conductors, the plurality of electrical conductors may be electrically insulated from one another, for example to prevent the occurrence of short-circuits. The unitary body may electrically insulate the plurality of electrical conductors from one another. The unitary body may comprise an electrically insulating material. The plurality of electrical conductors may comprise an electrically insulating coating. The plurality of electrical conductors may be pre-coated with an electrically insulating material prior to encapsulation by the first material.

According to a second aspect of the present invention there is provided a textile comprising a fibre according to the first aspect of the present invention.

The textile may comprise a garment, which may, for example, comprise outerwear or underwear. The fibre may be attached to the textile, and may, for example, be attached to an interior surface of a garment. The fibre may be attached to the textile using adhesive. For example, the fibre may be attached to adhesive fabric tape, which may be adhered to a textile. Where the fibre comprises a sensor, the fibre may comprise a blocking element for blocking unwanted signals. Where the fibre comprises a temperature sensor, a non-body facing surface of the temperature sensor may be thermally insulated from the ambient environment. For example, a surface of a garment and/or a surface of the adhesive fabric tape, in a region of the temperature sensor, may comprise a thermally insulating material.

Where the textile comprises a garment, the fibre may be attached to the garment such that the electronic device is exposed to the body of a user. For example, the fibre may be attached to the garment such that the electronic device is in thermal contact with the body of a user.

According to a third aspect of the present invention there is provided a method of manufacturing a fibre for incorporation into a textile, the method comprising connecting an electrical conductor to an electronic device, encapsulating the electronic device and the electrical conductor in a unitary body of at least a first material, such that the electrical conductor extends along a longitudinal axis of the fibre.

The method may comprise coating the electronic device and electrical conductor in a first liquid material, and solidifying the first liquid material such that the electronic device and the electrical conductor are encapsulated by a unitary body of the first material.

The first liquid material may be held in a bath, for example a reservoir of the first liquid material, and the electronic device and electrical conductor may be dipped in the bath to coat the electronic device and electrical conductor in the first liquid material. The first liquid material may be solidified by curing, and may, for example, be solidified by exposure to UV light, or exposure to heat, or exposure to hot air. The first liquid material may comprise a resin. The first liquid material may comprise a resin, for example a plant-derived or synthetic resin. The resin will typically be a plastics material, and may be a thermoplastic material. The first liquid material may be thermally conductive, and may be more thermally conductive than conventional yarn. For example, the first liquid material may have a thermal conductivity of at least 0.1 W/(m-K). The first liquid material may comprise any of: silicone rubber; epoxy resin; polyester resin; polyurethane; or acrylic.

The method may comprise coating the electronic device in a first liquid material and coating the electrical conductor in a second liquid material, and solidifying the first and second liquid materials, such that the electronic device and the electrical conductor are encapsulated by the first and second materials respectively. The method may comprise coating at least a portion of the electrical conductor in a first liquid material, coating at least a portion of the electrical conductor in a second liquid material, and solidifying the first and second liquid materials such that the electrical conductor is encapsulated by the first and second materials. The first and second materials may comprise multiple layers of material.

The method may comprise providing a reinforcing member to the electronic device and/or electrical conductor prior to encapsulating the electronic device and electrical conductor in a first and/or second liquid material. The method may comprise fixing the electrical conductor to the reinforcing member. The method may comprise winding the electrical conductor around the reinforcing member, for example in a helical fashion.

According to a fourth aspect of the present invention there is provided a method of manufacturing a textile, the method comprising incorporating a fibre according to the first aspect of the present invention into the textile.

The method may comprise attaching a fibre according to the first aspect of the present invention to a textile, for example by any or any combination of: sewing or inserting the fibre into the textile, for example into a hem, side seam, or collar of a garment; adhering the fibre to the textile, either directly or indirectly, using an adhesive, such as an adhesive fabric tape; weaving the fibre into the textile;

embroidering the fibre into the textile; knitting the fibre into the textile; or inserting the fibre into the structure of a woven/knitted/non-woven textile.

Preferential features of each aspect of the present invention may be applied to other aspects of the present invention, where appropriate. Practicable embodiments of the invention will now be described, with reference to the accompanying drawings, of which:

Figure 1 is a schematic longitudinal sectional view of a fibre according to a first embodiment of the first aspect of the present invention;

Figure 2 is a schematic cross-sectional view of the fibre of Figure 1 ;

Figure 3 is a schematic view illustrating a method of manufacturing the fibre of Figures 1 and 2;

Figure 4 is a schematic view of two fibres according to the present invention attached to fabric tape;

Figure 5 is a schematic view of a first embodiment of a textile according to a second aspect of the present invention, in the form of a garment, incorporating the fabric tape of Figure 4;

Figure 6 is a schematic view of a second embodiment of a textile according to a second aspect of the present invention, in the form of a garment, incorporating the fibre of Figure 1 ; Figure 7 is a schematic view of a third embodiment of a garment according to a second aspect of the present invention, in the form of a garment, incorporating the fibre of Figure 1 ; Figure 8 is a schematic view of a second embodiment of a fibre according to the first aspect of the present invention;

Figure 9 is a schematic longitudinal sectional view of a third embodiment of a fibre according to the first aspect of the present invention;

Figure 10 is a schematic longitudinal sectional view of a fourth embodiment of a fibre according to the first aspect of the present invention; and

Figure 1 1 is a schematic longitudinal sectional view of a fifth embodiment of a fibre according to the first aspect of the present invention.

A fibre, generally designated 10, according to a first aspect of the present invention, is shown schematically in Figures 1 and 2. The fibre 10 comprises an electronic device 12, an electrical conductor 16, a reinforcing thread 18, and a resin body 20. The fibre 10 is in the region of 1 m long.

The electronic device 12 may be any appropriate electronic device, but in the present case is a temperature sensor 12. The temperature sensor 12 has a maximum dimension of 500μιη or 300 μιη. The electrical conductor 16 is formed from copper wire, and is electrically connected to an appropriate contact point on the temperature sensor 12. The electrical conductor 16 extend across the entire length of the fibre 10, as shown in Figure 1 .

The reinforcing thread 18 is attached to the temperature sensor 12, and extends across the entire length of the fibre 10, as shown in Figure 1 . The reinforcing thread 18 may be formed of any material sufficient to reinforce the fibre 10, and in the present case is formed from nylon.

The resin body 20 encapsulates each of the temperature sensor 12, the electrical conductor 16, and the reinforcing thread 18, such that the resin body 20 forms an outermost layer of the fibre 10. In this manner, the resin body 20 prevents exposure of the remaining components to the external environment of the fibre 10. Furthermore, and as seen in Figure 1 , the resin body 20 forms a main body of the fibre 10 along the length of the fibre 10.

A method of manufacturing the fibre 10 is shown schematically in Figure 3.

Initially, the electrical conductor 16 and the reinforcing thread 18, are connected to the temperature sensor 12. This combined structure is dipped into a resin bath 22, and subsequently passed to a curing station 24. The curing station 24 utilises a suitable form of curing, for example applying heat, UV light, or hot air, to cure the resin, thereby forming the resin body 20.

An example use of the fibre 10 is shown schematically in Figures 4 and 5. As shown in Figure 4, first 10 and second 10' fibres are attached to fabric tape or ribbon 26. One side of the fabric tape that is not contact with skin of a user is provided with a thermally insulating material (not-shown) in the region of the temperature sensors 12, 12' of the first 10 and second 10' fibres. Thus the temperature sensors 12, 12' are shielded from ambient conditions when the fabric tape 26 is attached to a garment 30. The first 10 and second 10' fibres are provided at one end with a connection member 28, for connection to a Bluetooth transmitting device 32.

As shown in Figure 5, the fabric tape 26 is attached to the inside of a underwear t- shirt 30, such that the thermally insulating material contacts the fabric of the t-shirt 30, and the temperature sensors 12,12' are exposed to the interior of the t-shirt 30. The first 10 and second 10' fibres are connected to a Bluetooth transmitting device 32 via the connection member 28. When the t-shirt 30 is worn, the temperature sensors 12, 12' are able to sense the temperature of the body of the wearer, and are able to relay this information to a remote monitoring location via the Bluetooth transmitting device 32. Another embodiment of a garment incorporating the first 10 and second 10' fibres is shown schematically in Figure 6. The garment is a bra 34, which incorporates the first 10 and second 10' fibres in a similar manner to the t-shirt 30 shown in Figure 5. Such applications may be particularly useful in both the sporting and medical fields. In particular, in the sporting field, the fibre 10 of the present invention may be used to provide real time feedback of an athlete's performance and/or body vitals. In the medical field, the fibre 10 of the present invention may be

incorporated into a garment intended to be worn by an infant. The body temperature of the infant may be monitored using fibres according to the present invention, and relevant data can be transmitted to, for example, a parent, or a clinician. In such a manner, rises or falls in the body temperature of the infant can be immediately notified to the relevant persons, such that the relevant person can then take action should such action be necessary. The fibre 10 may be used in a garment for adults and/or elderly patients in a similar manner.

A further embodiment of a garment incorporating a fibre according to the present invention is shown in Figure 7. In this embodiment, the garment 36 is a t-shirt 36, which has a fibre 38 sewn into its side seam. The fibre 38 differs from the fibres 10, 10' previously discussed, in that the fibre 38 has an RFID sensor 40 instead of a temperature sensor 12,12'.

A second embodiment of a fibre according to the present invention, generally designated 100, is shown schematically in Figure 8.

The fibre 100 comprises an electronic device 102, first 104 and second 106 electrical conductors, a reinforcing thread 108, a resin body 1 10, and first 1 12 and second 1 14 electrical connectors. The electronic device 102 may be any appropriate electronic device, but in the present case is a temperature sensor 12. The first 104 and second 106 electrical conductors are formed from copper wire, and are electrically connected to the first 1 12 and second 1 14 electrical connectors of the temperature sensor 102. The first 104 and second 106 electrical conductors extend across the entire length of the fibre 100, as shown in Figure 8.

The reinforcing thread 108 extends across the entire length of the fibre 100, as shown in Figure 8. The reinforcing thread 108 may be formed of any material sufficient to reinforce the fibre 100, and in the present case is formed from nylon. The first 104 and second 106 electrical conductors are wound around the reinforcing thread 108 in a helical manner. The resin body 1 10 encapsulates each of the temperature sensor 102, the first 104 and second 106 electrical conductors, the reinforcing thread 108, and the first 1 12 and second 1 14 electrical connectors such that the resin body 1 10 forms an outermost layer of the fibre 100. In this manner, the resin body 1 10 prevents exposure of the remaining components to the external environment of the fibre 100. Furthermore, and as seen in Figure 8, the resin body 1 10 forms a main body of the fibre 100 along the length of the fibre 100.

A third embodiment of a fibre according to the present invention, generally designated 200, is shown schematically in Figure 9. The third embodiment of the fibre 200 is substantially the same as the first embodiment 10, and differs only in that the fibre 200 has a plurality of different electronic devices 202,204,206,208 encapsulated therein.

A fourth embodiment of a fibre according to the present invention, generally designated 300, is shown schematically in Figure 10. The fibre 300 comprises an electronic device 302, first 304 and second 306 electrical conductors, a reinforcing thread 308, and first 310, second 312, third 314, and fourth 316 resin bodies. The electronic device 302 in the fourth embodiment is an RFID tag. The first 304 and second 306 electrical conductors are formed from copper wire, and are electrically connected to the RFID tag 302. The first 304 and second 306 electrical conductors extend across the entire length of the fibre 300, as shown in Figure 10. The reinforcing thread 308 extends across the entire length of the fibre 300, as shown in Figure 10. The reinforcing thread 308 may be formed of any material sufficient to reinforce the fibre 300, and in the present case is formed from nylon.

The first resin body 310 is formed of epoxy resin and encapsulates the RFID tag 302, along with portions of the first 304 and second 306 electrical conductors, and a portion of the reinforcing thread 308. The use of epoxy resin for the first resin body 310 may be beneficial as it may provide a region of relatively high structural strength about the RFID tag 302. The second 312 and third 314 resin bodies are formed of an electrically insulating resin, and encapsulate the remainder of the first 304 and second 306 electrical conductors and the reinforcing thread 308 either side of the RFID tag 302.

The fourth resin body 316 encapsulates the first 310, second 312, and third 314 resin bodies, such that the fourth resin body 314 defines an outer layer of the fibre 300, and is formed from a resin which is more flexible than the resin of the first 310, second 312, and third 314 bodies of resin, for example polyurethane or silicone elastomer. The use of different resins for the first 310, second 312, third 314 and fourth 316 bodies of resin may allow resins having different material properties, eg structural strength, flexibility, heat/electrical conduction, to be chosen dependent on the application of the fibre 300, whilst still ensuring that the electronic device (eg the RFID tag 302) and the electrical conductors 304,306 are encapsulated, thereby preventing exposure to ambient conditions.

A fifth embodiment of a fibre according to the present invention is shown schematically in Figure 1 1 . The fifth embodiment of the fibre is substantially identical to the fourth embodiment of the fibre 300, and hence the reference numerals used for the fourth and fifth embodiments of the fibre 300 are the same. The fifth embodiment differs from the fourth embodiment only in that the fourth resin body 316 in the region of the RFID tag 302 is thicker relative to the remaining regions of the fourth resin body 316 along the length of the fibre 300. This region of increased thickness may, for example provide increased thermal resistance or increased mechanical strength in the region of the RFID 302.