mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising: (i) composite particles comprising - a polymer containing at least one monomer unit selected from styrene, (meth)acrylic acid esters, vinyl acetate, vinyl chloride, and acrylonitrile and, dispersed in the polymer, - inorganic nitride particles; and (ii) a fluoropolymer which is a fluoroelastomer having a cyano group, wherein the amount of the composite particles is 0.1-30 parts by mass per 100 parts by mass of the fluoropolymer. (i) composite particles comprising - a polymer containing at least one monomer unit selected from styrene, (meth)acrylic acid esters, vinyl acetate, vinyl chloride, and acrylonitrile and, dispersed in the polymer, - inorganic nitride particles; and - a polymer containing at least one monomer unit selected from styrene, (meth)acrylic acid esters, vinyl acetate, vinyl chloride, and acrylonitrile and, dispersed in the polymer, - inorganic nitride particles; and (ii) a fluoropolymer which is a fluoroelastomer having a cyano group,
A polymerizable sealing composition comprising: microcapsules that include a component (a) and a component (b), the component (a) being a compound that has a bisphenol skeleton, and comprises one or more (meth)acrylic groups in its molecule, and the component (b) being a compound that has a molecular weight of 300 or less, comprises one or more (meth)acryloyloxy groups bonded directly to an aliphatic chain, and does not comprise an epoxy group, the microcapsules including the component (b) in a ratio of 50 to 150 parts by mass based on 100 parts by mass of the component (a); a binder component that comprises a polymer comprising an acrylic ester as a constituent monomer, the polymerizable sealing composition comprising the binder component in a ratio of 1 to 75 parts by mass based on 100 parts by mass of the microcapsules ; an element that is present outside the microcapsules and that cures the component (a) and the component (b); and water. microcapsules that include a component (a) and a component (b), the component (a) being a compound that has a bisphenol skeleton, and comprises one or more (meth)acrylic groups in its molecule, and the component (b) being a compound that has a molecular weight of 300 or less, comprises one or more (meth)acryloyloxy groups bonded directly to an aliphatic chain, and does not comprise an epoxy group, the microcapsules including the component (b) in a ratio of 50 to 150 parts by mass based on 100 parts by mass of the component (a); a binder component that comprises a polymer comprising an acrylic ester as a constituent monomer, the polymerizable sealing composition comprising the binder component in a ratio of 1 to 75 parts by mass based on 100 parts by mass of the microcapsules ; an element that is present outside the microcapsules and that cures the component (a) and the component (b); and water.
A cathode material including a cathode active material, wherein the cathode material comprises active material particles which is formed of the cathode active material and a carbonaceous material which presents on surfaces of the active material particles, the cathode active material is expressed by Li 1+x A y D z PO 4 , wherein A represents one or more metal elements selected from the group consisting of Co, Mn, Ni, and Fe; D represents one or more metal elements selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, and Al; 0<x<1; 0<y≤1; 0≤z<1.5; and 0.9<y+z≤1, the cathode material further comprises impurities comprising absorbed water and water of crystallization, wherein the cathode material comprises the water of crystallization at ratio of 0.3% by weight or less with respect to the cathode material, and when a temperature of the cathode material is raised in a temperature range from 100°C to 300°C at a temperature-increase rate of 10°C/min, a weight loss rate in the temperature range due to evaporation of the water of crystallization has a weight loss rate of 0.3% by weight or less, wherein the weight loss rate is obtained by thermogravimetric analysis performed under the following measurement conditions using a differential thermogravimetric analyzer: specimen amount: 15 mg temperature-increase rate: 10°C /minute atmosphere: N 2 gas flow rate: 200 ml/minute measurement temperature range: 100 to 300°C.
Power communication architecture for an aircraft comprising: a power electronics module management unit that is capable of receiving input signals and of delivering a current setpoint ; at least one power electronics module that is capable of receiving said current setpoint ; at least one load that is controlled by the at least one power electronics module ; the power electronics module management unit storing control laws for controlling the one or more loads allowing a current setpoint to be transmitted according to the input signals and said control laws , said control laws of the power electronics module management unit incorporating the current loops of the power electronics modules . a power electronics module management unit that is capable of receiving input signals and of delivering a current setpoint ; at least one power electronics module that is capable of receiving said current setpoint ; at least one load that is controlled by the at least one power electronics module ; the power electronics module management unit storing control laws for controlling the one or more loads allowing a current setpoint to be transmitted according to the input signals and said control laws , said control laws of the power electronics module management unit incorporating the current loops of the power electronics modules .
An R-Fe-B permanent magnet, wherein the permanent magnet comprises at least a grain boundary and composite main phase grains; the grain boundary comprises an RH-rich phase distributed in the form of an agglomerate within the grain boundary between the composite main phase grains, preferably at the intersection of any adjacent three or more composite main phase grains; the RH-rich phase is continuously distributed along the grain boundary in the form of a thin-layer stripe; RH in the grain boundary has a content greater than that of the RH in the main phase grains, and the RH is at least one selected from heavy rare earth metals such as Dy, Tb, and Ho; the composite main phase grain has a core-shell structure, wherein the core-shell structure comprises a core structure having an R-T-B type phase structure and a shell structure on the outer layer of the core structure; characterized in that the core structure comprises Ce-rich main phase grains and Ce-poor main phase grains; wherein Ce in the Ce-rich main phase grains has a content of 1-15 wt%, and Ce in the Ce-poor main phase grains has a content of 0.1-1 wt%; and the RH-rich phase comprises at least one heavy rare earth metal RH selected from Dy, Tb, and Ho, at least one light rare earth metal RL selected from Pr and Nd, and optionally at least one metal M selected from Ga and Cu. the grain boundary comprises an RH-rich phase distributed in the form of an agglomerate within the grain boundary between the composite main phase grains, preferably at the intersection of any adjacent three or more composite main phase grains; the RH-rich phase is continuously distributed along the grain boundary in the form of a thin-layer stripe; RH in the grain boundary has a content greater than that of the RH in the main phase grains, and the RH is at least one selected from heavy rare earth metals such as Dy, Tb, and Ho; the composite main phase grain has a core-shell structure, wherein the core-shell structure comprises a core structure having an R-T-B type phase structure and a shell structure on the outer layer of the core structure; characterized in that the core structure comprises Ce-rich main phase grains and Ce-poor main phase grains; wherein Ce in the Ce-rich main phase grains has a content of 1-15 wt%, and Ce in the Ce-poor main phase grains has a content of 0.1-1 wt%; and the RH-rich phase comprises at least one heavy rare earth metal RH selected from Dy, Tb, and Ho, at least one light rare earth metal RL selected from Pr and Nd, and optionally at least one metal M selected from Ga and Cu.
A stationary or traveling pipe cutting machine that cuts a pipe at a right angle to the center line of the pipe, comprising: rotary blades in a pair, with a plane at a right angle to the center line of the pipe to be cut defined as an x-y plane and the center of the pipe defined as a coordinate origin, the rotary blades being arranged to face each other on both sides of a y axis in such a manner that blade edges of the rotary blades overlap each other in the direction of an x axis; a straightforward driving mechanism that drives the rotary blades in a pair straightforward in opposite directions of a y-axis direction so as to make the rotary blades in a pair pass each other on the x axis and in the vicinity of the x axis; and characterized by a power direction conversion mechanism that changes part of straightforward driving force in the y-axis direction to force in the x-axis direction and moves at least one of the rotary blades in a pair outwardly to get farther from the y axis for avoiding interference between the blade edges when the rotary blades in a pair pass each other on the x axis and in the vicinity of the x axis. rotary blades in a pair, with a plane at a right angle to the center line of the pipe to be cut defined as an x-y plane and the center of the pipe defined as a coordinate origin, the rotary blades being arranged to face each other on both sides of a y axis in such a manner that blade edges of the rotary blades overlap each other in the direction of an x axis; a straightforward driving mechanism that drives the rotary blades in a pair straightforward in opposite directions of a y-axis direction so as to make the rotary blades in a pair pass each other on the x axis and in the vicinity of the x axis; and
An image processing method, wherein the method comprises: obtaining an input image, wherein the input image comprises multiple common pixels and multiple phase pixel pairs, each of the multiple phase pixel pairs comprises a first phase pixel and a second phase pixel, the first phase pixel is obtained by a photosensitive element that is blocked on the left side, and the second phase pixel is obtained by a photosensitive element that is blocked on the right side; dividing the input image into at least two area windows, wherein each of the at least two area windows comprises at least two adjacent phase pixel pairs of the multiple phase pixel pairs; determining , according to the at least two phase pixel pairs in each of the at least two area windows, a phase difference corresponding to each area window; and determining , according to the phase difference corresponding to each area window, a depth map corresponding to the input image, characterized in that the method further comprises determining a first length according to a required resolution of the depth map in a first direction, wherein the first length is greater than or equal to a distance between two adjacent phase pixel pairs in the first direction, and that the dividing the input image into at least two area windows comprises: dividing, by using the first length as a step, at least one part of the input image in a first direction into at least two area windows whose sizes are the same, wherein the first direction is a horizontal direction of the input image or a vertical direction of the input image. obtaining an input image, wherein the input image comprises multiple common pixels and multiple phase pixel pairs, each of the multiple phase pixel pairs comprises a first phase pixel and a second phase pixel, the first phase pixel is obtained by a photosensitive element that is blocked on the left side, and the second phase pixel is obtained by a photosensitive element that is blocked on the right side; dividing the input image into at least two area windows, wherein each of the at least two area windows comprises at least two adjacent phase pixel pairs of the multiple phase pixel pairs; determining , according to the at least two phase pixel pairs in each of the at least two area windows, a phase difference corresponding to each area window; and determining , according to the phase difference corresponding to each area window, a depth map corresponding to the input image, characterized in that the method further comprises determining a first length according to a required resolution of the depth map in a first direction, wherein the first length is greater than or equal to a distance between two adjacent phase pixel pairs in the first direction, and that the dividing the input image into at least two area windows comprises: dividing, by using the first length as a step, at least one part of the input image in a first direction into at least two area windows whose sizes are the same, wherein the first direction is a horizontal direction of the input image or a vertical direction of the input image.
Method for cross-subscriber communication, in which information about a first state transition in an autonomous driving system is received from a first subscriber on the autonomous driving system, and in which information about a state of the autonomous driving system is determined on the basis of the information about the first state transition and on the basis of information about at least one second state transition in the autonomous driving system, and in which information about the state is stored in at least one blockchain, wherein the subscribers are vehicles and wherein the method is characterized in that a decision by a second subscriber to select a second trajectory instead of a previously transmitted old second trajectory in order to avoid an object is provided to the first subscriber as a second state change via the at least one blockchain and wherein the decision by the first subscriber regarding how to react to the second trajectory is based on the second trajectory . state transition in an autonomous driving system is received from a first subscriber on the autonomous driving system, and in which information about a state of the autonomous driving system is determined on the basis of the information about the first state transition and on the basis of information about at least one second state transition in the autonomous driving system, and in which information about the state is stored in at least one blockchain, wherein the subscribers are vehicles and wherein the method is characterized in that a decision by a second subscriber to select a second trajectory instead of a previously transmitted old second trajectory in order to avoid an object is provided to the first subscriber as a second state change via the at least one blockchain and wherein the decision by the first subscriber regarding how to react to the second trajectory is based on the second trajectory .
A high-speed rotational atherectomy device for opening a stenosis in an artery having a given diameter, comprising: a guide wire having a maximum diameter less than the diameter of the artery; a flexible elongated, rotatable drive shaft advanceable over the guide wire, the drive shaft having a proximal end and a distal end and an axis of rotation; an eccentric abrading head attached proximate to the distal end of the drive shaft and comprising a center of mass that is radially offset from the axis of rotation of the drive shaft; and a concentric piloting member fixedly attached to the distal end of the drive shaft and disposed distal to and spaced apart from the eccentric abrading head, wherein the concentric piloting member has an outer surface with an abrasive coating on at least a portion of the piloting member and a center of mass located on the axis of rotation of the drive shaft. a guide wire having a maximum diameter less than the diameter of the artery; a flexible elongated, rotatable drive shaft advanceable over the guide wire, the drive shaft having a proximal end and a distal end and an axis of rotation; an eccentric abrading head attached proximate to the distal end of the drive shaft and comprising a center of mass that is radially offset from the axis of rotation of the drive shaft; and a concentric piloting member fixedly attached to the distal end of the drive shaft and disposed distal to and spaced apart from the eccentric abrading head, wherein the concentric piloting member has an outer surface with an abrasive coating on at least a portion of the piloting member and a center of mass located on the axis of rotation of the drive shaft.
A method for wireless communication, comprising: decoding , at a user equipment, UE, a multi-radio access technology, multi-RAT, primary synchronization signal, PSS, the multi-RAT PSS being common among a plurality of radio access technologies, RATs; decoding at the UE, based at least in part on the decoded multi-RAT PSS, a secondary synchronization signal, SSS; and identifying by the UE, based at least in part on the decoded SSS, a RAT associated with the multi-RAT PSS and the SSS, wherein identifying the RAT comprises identifying a RAT sequence number included in the SSS, the RAT sequence number comprising an identifier of the RAT. decoding , at a user equipment, UE, a multi-radio access technology, multi-RAT, primary synchronization signal, PSS, the multi-RAT PSS being common among a plurality of radio access technologies, RATs; decoding at the UE, based at least in part on the decoded multi-RAT PSS, a secondary synchronization signal, SSS; and identifying by the UE, based at least in part on the decoded SSS, a RAT associated with the multi-RAT PSS and the SSS, wherein identifying the RAT comprises identifying a RAT sequence number included in the SSS, the RAT sequence number comprising an identifier of the RAT.
Architectural covering having a drive mechanism for extending and retracting a covering member between opposite first and second end positions, and a winding core for receiving wound layers of a flexible element during extending and retracting of the covering member, wherein the drive mechanism comprises: an electric motor unit having a stationary end and a rotating end for rotating the winding core; a motor head ; wherein: said motor head is for providing electrical control to the motor unit and comprises a printed circuit board comprising at least a selection of: end position limit switches; a switch for setting the first and second end positions; electronic communication means; and a remote control receiver; and said motor head is separate from the electric motor unit and coupled thereto via an electrical interface ; characterized in at least one spring assist module interposed between the electric motor unit and the motor head . an electric motor unit having a stationary end and a rotating end for rotating the winding core; a motor head ; wherein: said motor head is for providing electrical control to the motor unit and comprises a printed circuit board comprising at least a selection of: end position limit switches; a switch for setting the first and second end positions; electronic communication means; and a remote control receiver; and said motor head is separate from the electric motor unit and coupled thereto via an electrical interface ; characterized in at least one spring assist module interposed between the electric motor unit and the motor head . said motor head is for providing electrical control to the motor unit and comprises a printed circuit board comprising at least a selection of: end position limit switches; a switch for setting the first and second end positions; electronic communication means; and a remote control receiver; and said motor head is separate from the electric motor unit and coupled thereto via an electrical interface ; characterized in at least one spring assist module interposed between the electric motor unit and the motor head .
An acoustic structure comprising a combination of a porous background structure and an acoustic coating, characterized in that the acoustic coating is made of natural fibrous matter, does not contain any binders and is applied by spraying on at least one surface of the porous non-felted background structure, wherein the natural fibrous matter forms a fibre network on top of the holes in the surface of the porous background structure, so that said surface can be made plain.
An X-ray spectrometer comprising an X-ray source , from which X-ray radiation is passed onto a sample to be examined and having a surface on which the X-ray radiation from the X-ray source impinges, comprising a diaphragm arrangement , through which X-ray radiation diffracted or scattered at the surface of the sample or emitted by the sample can pass, comprising a collimator arrangement (5a; 5b; 5c; 5d; 5e) having a multiplicity of mutually parallel lamellae , comprising an analyzer arrangement , at which part of the X-ray radiation (5`) that has passed through the collimator arrangement (5a; 5b; 5c; 5d; 5e) is reflected whilst complying with the Bragg condition, and comprising a detector arrangement (7a; 7b) for receiving and detecting X-ray radiation reflected at the analyzer arrangement , wherein the diaphragm arrangement comprises a slit-shaped diaphragm and is positioned in the beam path of the X-ray spectrometer upstream or downstream of the collimator arrangement (5a; 5b), and wherein the detector arrangement (7a; 7b) comprises at least one detector that is spatially resolving in one dimension, characterized in that the collimator arrangement (5a; 5b; 5c; 5d; 5e) comprises a modified Soller diaphragm, in which the lamellae form a multiplicity of slit-shaped passages, but in which case, at least for a portion of the slits formed by the lamellae , partitions aligned substantially perpendicularly to the slits are present, which partitions are non-transmissive to X-ray radiation and restrict the transverse divergence of the X-ray radiation (5`) passing through the collimator arrangement (5a; 5b; 5c; 5d; 5e) in a direction transversely with respect to the diffraction plane of the X-ray radiation coming from the sample . wherein the diaphragm arrangement comprises a slit-shaped diaphragm and is positioned in the beam path of the X-ray spectrometer upstream or downstream of the collimator arrangement (5a; 5b), and wherein the detector arrangement (7a; 7b) comprises at least one detector that is spatially resolving in one dimension, characterized in that the collimator arrangement (5a; 5b; 5c; 5d; 5e) comprises a modified Soller diaphragm, in which the lamellae form a multiplicity of slit-shaped passages, but in which case, at least for a portion of the slits formed by the lamellae , partitions aligned substantially perpendicularly to the slits are present, which partitions are non-transmissive to X-ray radiation and restrict the transverse divergence of the X-ray radiation (5`) passing through the collimator arrangement (5a; 5b; 5c; 5d; 5e) in a direction transversely with respect to the diffraction plane of the X-ray radiation coming from the sample .
Shift cam system for an internal combustion engine with at least one camshaft , comprising a carrier shaft with at least two shift cam elements , which each comprise a shift gate with at least one shift groove , wherein the shift cam elements are axially displaceable relative to the carrier shaft by at least one actuator pin and at least one adjusting element is arranged parallel to a longitudinal axis of the carrier shaft , wherein the adjusting element is axially displaceable in the direction of the longitudinal axis of the carrier shaft , wherein the adjusting element has at least two coupling pins , wherein a first coupling pin is arranged in the region of the first sliding cam element and a second coupling pin is arranged in the region of the second sliding cam element and the coupling pins each co-operate with a switching gate of the respective associated sliding cam element in such a way that a movement of the first sliding cam element initiated by the actuator pin can be transmitted to the second sliding cam element by the adjusting element , characterised in that the coupling pins cooperate with the switching groove of the switching gate .