| Document |
Document Title |
|
WO/2020/035859A2 |
The invention concerns processes for preparing copper metal flakes and uses thereof.
|
|
WO/2020/032547A1 |
Magnetic powder according to an embodiment of the present invention is a powder particle obtained from the synthesis of a mixture of rare earth oxide, raw material, metal, metal oxide and reducing agent, wherein the powder particle is a ...
|
|
WO/2020/032235A1 |
The present invention addresses the problem of providing a molded body which is formed of an Ni-based alloy, and which exhibits excellent strength in a high temperature environment. In order to solve this problem, the present invention p...
|
|
WO/2020/029492A1 |
Disclosed is a method for preparing metal powder by atomization, Include: pressurizing and gasifying a liquid-state atomized substance in advance to obtain a gas-state atomized substance, wherein the atomized substance is in a liquid sta...
|
|
WO/2020/032161A1 |
This bonding composition comprises copper powder, a liquid medium, and a reducing agent, wherein the reducing agent has at least one amino group and a plurality of hydroxyl groups, the reducing agent has a boiling point that is higher th...
|
|
WO/2020/033639A1 |
A system and method for producing fuel grain for a rocket engine horizontally with an additive manufacturing machine is disclosed. To begin, a fuel grain model is received. The fuel grain model is oriented in a direction of a central cor...
|
|
WO/2020/032777A1 |
According to one aspect of the present invention, provided is a method for manufacturing an oxide dispersion strengthened alloy using an organic/inorganic mixed composition as a raw material, the method comprising: a raw material prepara...
|
|
WO/2020/033673A1 |
A method for manufacturing a component comprising bombarding nanoparticles in suspension with a laser to transform ligands on the nanoparticles so the nanoparticles drop out of suspension and deposit onto a substrate; and bombarding addi...
|
|
WO/2020/030619A1 |
The invention relates to a material system for producing a component in an additive manufacturing method with comprising at least one first group of particles (203, 301, 302, 303, 400, 401, 402, 500, 800, 802, 1002, 1003, 1200, 1201, 130...
|
|
WO/2020/033631A1 |
Copper nanoparticle paste compositions may be formulated for forming connections that are capable of operating at high temperatures by including a grain growth inhibitor with copper nanoparticles in a suitable amount. Such nanoparticle p...
|
|
WO/2020/031090A1 |
Carbon-based single metal atom or bimetallic, trimetallic, or multimetallic alloy transition metal-containing catalysts derived from exoelectrogen bacteria and their methods of making and using thereof are described. The method comprisin...
|
|
WO/2020/028450A1 |
Provided herein are methods of preparing tetrahexahedra nanoparticles and methods of using the tetrahexahedra nanoparticles as an oxidative catalyst.
|
|
WO/2020/028643A1 |
A biomedical device includes a zinc-based material including a matrix including zinc, and nanostructures dispersed in the matrix. Embodiments of this disclosure are directed to zinc (Zn)-based materials including dispersed nanostructures...
|
|
WO/2020/027874A2 |
Tantalum powder that is highly spherical is described. The tantalum powder can be useful in additive manufacturing and other uses. Methods to make the tantalum powder are further described as well as methods to utilize the tantalum powde...
|
|
WO/2020/025968A1 |
The present invention relates to a nickel-based alloy powder for additive manufacturing comprising in weight%: C:0.09 to 0.17, Ti:3.8 to 4.5, Zr:> 0.06, W:1.8 to 2.6, and Al:3.0 to 3.8
|
|
WO/2020/026949A1 |
Provided is a soft magnetic powder which makes it possible to manufacture a dust core having excellent magnetic properties (a low core loss, a high saturation magnetic flux density). A soft magnetic powder having a chemical composition r...
|
|
WO/2020/026628A1 |
This sliding member is provided with a substrate and a coating layer formed on the substrate. The coating layer comprises a particle aggregate containing precipitation hardening-type copper alloy particles, and said precipitation hardeni...
|
|
WO/2020/026604A1 |
This sliding member is provided with a substrate and a coating layer formed on the substrate. The coating layer comprises a particle aggregate, and said particle aggregate contains two or more types of precipitation hardening-type copper...
|
|
WO/2020/026984A1 |
Provided in an embodiment of the present invention is a method for manufacturing a three-dimensional model having an internal space communicating with the outside. The manufacturing method involves: (i) a process in which a solidified la...
|
|
WO/2020/025413A1 |
The invention refers to a metal composition. Furthermore, the invention refers to a method for additive manufacturing using such metal composition. Furthermore, the invention refers to the use of such metal composition.
|
|
WO/2020/023041A1 |
In an example, a three-dimensional (3D) printing kit includes a metallic build material composition; a binding agent; and a release agent for patterning a breakable connection. The binding agent includes a first latex binder. The release...
|
|
WO/2020/019404A1 |
A method for eliminating cracks of laser additive manufacturing of high-temperature Renè 104 nickel-based alloy. For solving the problem that cracks are easily generated during laser additive manufacturing of high-temperature Renè nick...
|
|
WO/2020/019402A1 |
The present invention relates to an oxide dispersion-strengthened iron-based alloy powder and a characterization method therefor. The alloy powder comprises a matrix and a strengthening phase, wherein the strengthening phase comprises at...
|
|
WO/2020/019401A1 |
The present invention relates to a multi-scale and multi-phase dispersion strengthened iron-based alloy, and a preparation and representation method therefor. The alloy contains a substrate and a strengthening phase; the strengthening ph...
|
|
WO/2020/021122A1 |
A production method of particulate materials, through centrifugal atomization (CA) is disclosed. The method is suitable for obtaining fine spherical powders with exceptional morphological quality and extremely low content, or even absenc...
|
|
WO/2020/021675A1 |
A tabular alumina particle that contains mullite in the surface layer thereof. A method for manufacturing a tabular alumina particle, said method comprising mixing, relative to 100 mass% of the tabular alumina particle, an aluminum compo...
|
|
WO/2020/020986A1 |
The invention relates to a solid composite material comprising copper and a volume amount of silver of less than approximately 5% by volume, with respect to the total volume of said material, to a method for producing the material, and t...
|
|
WO/2020/016591A1 |
The present invention concerns methods of forming metal-containing nanoparticles or oxide thereof, especially metal alloy nanoparticles. The method the steps of providing at least two different kinds of transition metal ion by providing ...
|
|
WO/2020/016613A1 |
A method of providing an article having a set of directional channels, including a first directional channel, therein is described. The method comprises preparing a mixture including particles comprising a first material and a first bind...
|
|
WO/2020/018131A1 |
An example of a multi-fluid kit for three-dimensional printing includes a binder fluid and an adhesion promoter fluid. The binder fluid includes water and polymer particles in an amount ranging from about 1 wt% to about 40 wt% based on t...
|
|
WO/2020/017564A1 |
The present invention provides: a method for producing a spherical silver powder, which is capable of easily producing a spherical silver powder that is suppressed in variation of the primary particle diameter in comparison to convention...
|
|
WO/2020/017529A1 |
Provided is a method for producing a rare-earth magnet powder having high magnetic characteristics. The present invention is a method for producing a rare-earth magnet powder, the method comprising: a disproportionation step in which a m...
|
|
WO/2020/018083A1 |
A three-dimensional printing kit can include a binder fluid, a gas-precursor fluid, and a particulate build material including metal particles. The binder fluid can include latex particles and an aqueous liquid vehicle. The gas-precursor...
|
|
WO/2020/016301A1 |
The invention relates to the use of a metal in powder form for additive manufacture of a metal moulded body by laser beam melting, the metal being a metal of group 11 of the Periodic Table of Elements or aluminium or an alloy or intermet...
|
|
WO/2020/017064A1 |
This composition contains: a metal component which can undergo transitional liquid-phase sintering; and an organic component. The metal component contains: metal particles A having a melting point higher than 300°C; and metal particles ...
|
|
WO/2020/018104A1 |
A three-dimensional printing kit can include a particulate build material including from about 80 wt% to 100 wt% metal particles based on the total weight of the particulate build material, and a binder fluid. The binder fluid can includ...
|
|
WO/2020/017049A1 |
Provided is a composition containing: a metal component which can undergo transitional liquid-phase sintering; and an organic component. The metal component contains: metal particles A having a higher melting point than 300°C; and metal...
|
|
WO/2020/013293A1 |
Provided are: an alloy powder that can be obtained from a waste lithium ion battery, wherein the alloy powder can be dissolved easily in an acid solution and enables efficient recovery of valuable metals contained in the alloy powder; an...
|
|
WO/2020/012626A1 |
A circuit formation method, including: a wiring formation step for applying a metal-containing liquid containing nanometer-sized metal microparticles onto a base and firing the metal-containing liquid to form wiring; a paste application ...
|
|
WO/2020/011779A1 |
A soft-magnetic powder coated with a silicon-based coating, wherein the silicon-based coating comprises at least one fluorine containing composition of formula (I), Si1 -0,75c MCO2-0,5c Fd (I), wherein c is in the range of 0.01 to 0.5, d...
|
|
WO/2020/014287A2 |
Atomic Layer Deposition (ALD) and Molecular Layer Deposition (MLD) provide precise and conformal coatings that are employed to modify the properties of powders for additive manufacturing (AM). We have surprisingly discovered that use of ...
|
|
WO/2020/011027A1 |
A hydrogenation-roll compacting composite process for improving a titanium alloy structure in additive manufacturing, comprising performing hydrogenation on titanium alloy powders, performing workpiece printing on the hydrogenated titani...
|
|
WO/2020/010313A1 |
The present disclosure relates, according to some embodiments, to a method for recovery of lithium ions from a lithium-ion containing liquid, the method comprising the steps of coating a nanoparticle with a styrene monomer; polymerizing ...
|
|
WO/2020/008866A1 |
This method for manufacturing a powder magnetic core includes: a step for pressure-molding a raw material powder to form a molded body; a step for subjecting the molded body to a first heat treatment to form a first heat-treated body; an...
|
|
WO/2020/007654A1 |
The present invention relates in one aspect to an iron-based alloy composition comprising: boron (B): 1. 6-2.4 wt.%; carbon (C): 2.2-3.0 wt.%; chromium (Cr): 3.5-5.0 wt.%; manganese (Mn): below 0.8 wt.%; molybdenum (Mo): 16.0-19.5 wt.%; ...
|
|
WO/2020/007652A1 |
The present invention relates in one aspect to an iron-based alloy composition comprising: boron (B): 1.6-2.4 wt.%; carbon (C): 1.7-3.0 wt.%; molybdenum (Mo): 16.0-19.5 wt.%; nickel (Ni): 3.5-6.S wt.%; manganese (Mn): below 0.8 wt.%; sil...
|
|
WO/2020/009235A1 |
One embodiment of the present invention pertains to an iron-based sintered member having a metal structure that includes an iron base and pores distributed in the iron base. The iron-based sintered member contains iron, 0.1-3.5 mass% of ...
|
|
WO/2020/009955A1 |
A method and a system for converting irregular metal hydride powders to spherical metal powders, and to an article produced therefrom is provided. The method comprises preparing powder comprising metal hydride particles. The powder is pa...
|
|
WO/2020/008809A1 |
This aluminum alloy material has: a composition which contains 3-10 mass% of Fe and in which the remaining part comprises Al and unavoidable impurities; and a structure which includes a mother phase and a compound. The mother phase chief...
|
|
WO/2020/007822A1 |
The present invention relates to a process for manufacturing stable and monodisperse biocompatible bismuth metallic (0) nanoparticles, in aqueous solution, using a water-soluble bismuth precursor, a water-soluble reducing agent and a coa...
|
