mhurhangee/ep-ind-claims huggingface dataset:
A negative electrode active material for a secondary battery comprising: a silicate phase including Li, Si, and M x, wherein M x is an element other than an alkali metal, an alkaline earth metal, or Si and includes at least one element selected from Zr, Ge, Ti, Al, B, Bi, Y, La, Sb, Nb, Ta, P, V, and W; silicon particles dispersed in the silicate phase; and oxide particles including at least any one of oxide particles including Zr, oxide particles including Ce, oxide particles including Ca, oxide particles including Al, oxide particles including Fe, oxide particles including Mg, oxide particles including Ti, and oxide particles including W, dispersed in the silicate phase, wherein, in the silicate phase, a Li content is 3 to 45 mol%, a Si content is 40 to 78 mol%, and an M x content is 1 to 40 mol%, each based on the total amount of elements other than oxygen. a silicate phase including Li, Si, and M x, wherein M x is an element other than an alkali metal, an alkaline earth metal, or Si and includes at least one element selected from Zr, Ge, Ti, Al, B, Bi, Y, La, Sb, Nb, Ta, P, V, and W; silicon particles dispersed in the silicate phase; and oxide particles including at least any one of oxide particles including Zr, oxide particles including Ce, oxide particles including Ca, oxide particles including Al, oxide particles including Fe, oxide particles including Mg, oxide particles including Ti, and oxide particles including W, dispersed in the silicate phase, wherein, in the silicate phase, a Li content is 3 to 45 mol%, a Si content is 40 to 78 mol%, and an M x content is 1 to 40 mol%, each based on the total amount of elements other than oxygen.
A wireless transmission apparatus that performs transmission of transmission data by carrier aggregation using a plurality of system frequency bands, and controlling a transmit power for transmission data for each system frequency band, each of the system frequency bands being comprised of a control channel band and a data channel band, the control channel band being arranged at both ends of the data channel band, wherein assignment of resource blocks for transmission data is independently performed for each of the system frequency bands, said apparatus comprising: a transmit power control section operable to: calculate a difference power for each one of the system frequency bands by subtracting, from a maximum transmit power set for the transmission apparatus, a transmit power of each of the other of the system frequency bands each multiplied by a respective factor, wherein each factor has a value of 0 or 1 depending on which system frequency band is preferentially assigned power, and control the transmit power of each one of the system frequency bands to be the smallest of: the difference power calculated for the respective system frequency band, and the sum of (i) an open loop transmission power value (OpTx) determined by the wireless transmission apparatus for the respective system frequency band and (ii) a correction value (ClTx) of a transmission power by a notification from a base station apparatus determined for the respective system frequency band. calculate a difference power for each one of the system frequency bands by subtracting, from a maximum transmit power set for the transmission apparatus, a transmit power of each of the other of the system frequency bands each multiplied by a respective factor, wherein each factor has a value of 0 or 1 depending on which system frequency band is preferentially assigned power, and control the transmit power of each one of the system frequency bands to be the smallest of: the difference power calculated for the respective system frequency band, and the sum of (i) an open loop transmission power value (OpTx) determined by the wireless transmission apparatus for the respective system frequency band and (ii) a correction value (ClTx) of a transmission power by a notification from a base station apparatus determined for the respective system frequency band. the difference power calculated for the respective system frequency band, and the sum of (i) an open loop transmission power value (OpTx) determined by the wireless transmission apparatus for the respective system frequency band and (ii) a correction value (ClTx) of a transmission power by a notification from a base station apparatus determined for the respective system frequency band.
A method of spatial modulation to identify a transmitter element (12, 14, 104, 106) within a transmission array of at least two transmitter elements, each transmitter element (12, 14, 104, 106) being located at a transmitter (16, 102), wherein a signal is transmitted by one active transmitter element (12, 14, 104, 106) at a time over a channel to a receiver (20, 112), the method comprising the steps of: allocating power to the transmitter elements (12, 14, 104, 106) wherein the power is allocated differently between at least two transmitter elements (12, 14, 104, 106); receiving transmitted data at the receiver (20,112); and detecting location of the active transmitter element (12, 14, 104, 106) using knowledge of the power allocated to the transmitter elements (12, 14, 104, 106); the method further comprising the steps of: determining an error probability of the signal; and determining a power allocation model for the transmitter elements (12, 14, 104, 106) by optimizing the error probability of the signal; wherein the step of allocating power to the transmitter elements (12, 14, 104, 106) is performed according to the determined power allocation model. allocating power to the transmitter elements (12, 14, 104, 106) wherein the power is allocated differently between at least two transmitter elements (12, 14, 104, 106); receiving transmitted data at the receiver (20,112); and detecting location of the active transmitter element (12, 14, 104, 106) using knowledge of the power allocated to the transmitter elements (12, 14, 104, 106); the method further comprising the steps of: determining an error probability of the signal; and determining a power allocation model for the transmitter elements (12, 14, 104, 106) by optimizing the error probability of the signal; wherein the step of allocating power to the transmitter elements (12, 14, 104, 106) is performed according to the determined power allocation model. determining an error probability of the signal; and determining a power allocation model for the transmitter elements (12, 14, 104, 106) by optimizing the error probability of the signal; wherein the step of allocating power to the transmitter elements (12, 14, 104, 106) is performed according to the determined power allocation model.
A fixing device comprising: a pressing member; a heating member pressed into contact with the pressing member to form a nip part; an excitation coil configured to generate a magnetic flux induction-heating the heating member; a magnetic core located at an opposite to the nip part across the excitation coil and configured to provide a magnetic path passing through the excitation coil and heating member; and a belt member being flexible, and being formed endlessly, being driven to rotate, allowing the magnetic flux to pass through, and including a magnetism shielding member, wherein, the magnetism shielding member is arranged so as to shield a part of the magnetic path, and includes a magnetism shielding layer arranged at a predetermined area in a surface of the belt member, in the magnetism shielding layer, gap parts extending in a width direction of the belt member are arranged at every predetermined pitch along a circumference direction of the belt member, in a situation of the magnetism shielding member located at a position in which the magnetic path is shielded, at least portions of inner wall faces of the gap part of the magnetism shielding layer are brought into contact with each other. a pressing member; a heating member pressed into contact with the pressing member to form a nip part; an excitation coil configured to generate a magnetic flux induction-heating the heating member;
A cylinder head gasket to be hold between a cylinder head and a cylinder block having a cylinder bore, and comprising a plurality of seal plates (1, 2,3) each having a combustion chamber hole (1 a, 2a, 3a) formed at a position of the cylinder bore, wherein the plurality of seal plates (1,2,3) comprise a first seal plate and a second seal plate, characterised in than a third seal plate is provided between the first seal pilate and the second seal plate, the first seal plate and the third seal plate being adhered to each other in a circumferentially continuous manner around the combustion chamber holes, (1a,2a,3a) and at an outer position apart from the inner rim of the combustion chamber holes, (1a,2a,3a) and the third seal plate and the second seal plate being adhered to each other in a circumferentially continuous manner around the combustion chamber holes, and at an outer position apart from the inner rim of the combustion chamber holes, (1a,2a,3a) wherein in use a combustion gas that is to leak through a gap between the respective seal plates (1,2,3) is sealed within an adhered portion of the respective seal plates and the combustion gas prevented from leaking by the adhered portion presses the seal plate on the cylinder head side and the seal plate on the cylinder block side against the cylinder head and the cylinder block, respectively.
A coating line cleaning apparatus for cleaning at least a selected part of a coating line, comprising a conveyed entity having first and second mutually opposed major faces (8, 17) and at least one flexible cleaning element having first and second mutually opposed major faces (15, 11), said cleaning element being characterised in that each one of said first and second major faces (15, 11) is tacky, the first of said tacky faces of said cleaning element being releasably adhered to one of the major faces (8,17) of the conveyed entity, and the second tacky major face of said cleaning element being temporarily contactable with the selected part of the coating line to bring said second tacky major face of the cleaning element into temporary contact with said selected part of a coating line to cause any contaminants present on said selected part of a coating line to adhere to said second tacky major face of said cleaning element thereby causing any contaminants to be removed from said selected part of a coating line.
A fingerprint module, comprising: a fingerprint identification chip; a flexible circuit board; and a pressure detection unit; wherein the pressure detection unit comprises a rigid substrate and a pressure detection circuit formed on the rigid substrate; the fingerprint identification chip and the pressure detection unit are arranged on two opposite surfaces of the flexible circuit board respectively, and are electrically connected to the flexible circuit board respectively. a fingerprint identification chip; a flexible circuit board; and a pressure detection unit; wherein the pressure detection unit comprises a rigid substrate and a pressure detection circuit formed on the rigid substrate; the fingerprint identification chip and the pressure detection unit are arranged on two opposite surfaces of the flexible circuit board respectively, and are electrically connected to the flexible circuit board respectively.
A device (50; 120; 140; 160; 180; 200; 220; 240; 260) for bisecting heart valve leaflets, comprising: a steerable catheter shaft (52; 122; 142; 162; 182; 202; 222; 242; 262); a foot sheath (82; 144; 164; 184; 204; 224; 248; 268) slidingly disposed within the steerable catheter shaft; a foot element (94; 124; 146; 166; 186; 206; 230; 252; 270) at a distal end of the foot sheath, the foot element configured to engage a valve leaflet (48; 236; 256), the foot element comprising a foot opening (96; 134; 148; 168; 188; 208; 232; 254); a foot alignment magnet disposed at the foot element; a cutting element sheath (78; 126; 150; 170; 190; 210; 224; 244; 264) slidingly disposed within the steerable catheter, the cutting element sheath comprising a cutting element sheath distal end; a cutting element alignment magnet at the cutting element sheath distal end; a cutting element (92; 128; 152; 172; 192; 212; 226; 246; 266) selectively extendable from the cutting element sheath distal end and into the foot opening. a steerable catheter shaft (52; 122; 142; 162; 182; 202; 222; 242; 262); a foot sheath (82; 144; 164; 184; 204; 224; 248; 268) slidingly disposed within the steerable catheter shaft; a foot element (94; 124; 146; 166; 186; 206; 230; 252; 270) at a distal end of the foot sheath, the foot element configured to engage a valve leaflet (48; 236; 256), the foot element comprising a foot opening (96; 134; 148; 168; 188; 208; 232; 254); a foot alignment magnet disposed at the foot element; a cutting element sheath (78; 126; 150; 170; 190; 210; 224; 244; 264) slidingly disposed within the steerable catheter, the cutting element sheath comprising a cutting element sheath distal end; a cutting element alignment magnet at the cutting element sheath distal end; a cutting element (92; 128; 152; 172; 192; 212; 226; 246; 266) selectively extendable from the cutting element sheath distal end and into the foot opening.
Reusable container for the collection and/or movement of objects, comprising a body and at least one removable layer said body and said removable layer mutually cooperating in order to define a three-dimensional structure, said three-dimensional structure comprising a collection space for a predetermined number of objects which can be placed in the container, the removable layer 4 comprising in an operating condition, a bottom wall, and a predetermined number of side walls perimetrically connected to the bottom wall, characterized in that the body further comprises: - a predetermined number of elongated elements defining edges of the bottom wall and/or upper edges of the side walls; - a predetermined number of angular elements interposed between two of said elongated elements placed along adjacent perimeter sides of the container, said angular elements further comprising gripping and handling means suitable for allowing a grip by a user of the container; and - means for engaging the removable layer in the elongated elements and/or in the angular elements, said means for engaging comprising insertion undercuts and/or recesses. - a predetermined number of elongated elements defining edges of the bottom wall and/or upper edges of the side walls; - a predetermined number of angular elements interposed between two of said elongated elements placed along adjacent perimeter sides of the container, said angular elements further comprising gripping and handling means suitable for allowing a grip by a user of the container; and - means for engaging the removable layer in the elongated elements and/or in the angular elements, said means for engaging comprising insertion undercuts and/or recesses.
A process to form coated polymer particles, comprising polymer particles formed from a polymer composition comprising an olefin-based polymer, and a coating formed from a coating composition comprising an aqueous metal fatty acid dispersion, and an aqueous polysiloxane emulsion, said process comprising the following: mixing together the aqueous metal fatty acid dispersion and the aqueous polysiloxane emulsion to form a dispersion/emulsion mixture; applying the dispersion/emulsion mixture to a portion of the surfaces of polymer particles, to form wet-coated polymer particles; drying the wet-coated polymer particles to form the coated polymer particles. mixing together the aqueous metal fatty acid dispersion and the aqueous polysiloxane emulsion to form a dispersion/emulsion mixture; applying the dispersion/emulsion mixture to a portion of the surfaces of polymer particles, to form wet-coated polymer particles; drying the wet-coated polymer particles to form the coated polymer particles.
A constant optical output illuminator system to enable reliable long- duration low-light imaging and data capture for surveillance and security applications, comprising an array of LEDs, LED power supply circuitry, and output feedback and compensation circuitry, in which a photodetector circuit provides a voltage signal proportional to an amount of light falling on a photodetector and the voltage signal is fed to a drive control circuit for electrical current to the LEDs, to achieve a desired optical output as measured by a voltage setpoint of the photodetector across the photodetector circuit, characterized in that a plurality of said photodetectors is embedded in the array of LEDs, in which said embedded photodetectors are spread throughout the LED array so as to obtain substantially average measurements of light output, wherein the photodetectors point 90 degrees from the light output of the LEDs.
A method for manufacturing an aniline oligomer compound of Formula, the method characterized by comprising: causing a triphenylamine derivative of Formula to react with an amine compound of Formula in the presence of a metal complex catalyst and a base: where X is a leaving functional group, and m' is an integer from 1 to 3. causing a triphenylamine derivative of Formula to react with an amine compound of Formula in the presence of a metal complex catalyst and a base: where X is a leaving functional group, and m' is an integer from 1 to 3.
A channel-state information process processing method, comprising: receiving (101, 301), by a user equipment, a first channel-state information, CSI, request sent by a first network device, wherein the first CSI request is used to trigger aperiodic CSI reporting; characterized by after receiving the first CSI request, if CSI corresponding to multiple aperiodic CSI processes has not been reported by the user equipment, dropping (102, 302), by a measurement processing module of the user equipment, processing of CSI corresponding to a part of the multiple aperiodic CSI processes and sending CSI obtained through measurement to the first network device or a second network device, wherein CSI corresponding to dropped processing of aperiodic CSI processes is replaced, by the user equipment, by a previous measurement result, and wherein each CSI process is associated with a channel measurement resource and an interference measurement resource. receiving (101, 301), by a user equipment, a first channel-state information, CSI, request sent by a first network device, wherein the first CSI request is used to trigger aperiodic CSI reporting; characterized by after receiving the first CSI request, if CSI corresponding to multiple aperiodic CSI processes has not been reported by the user equipment, dropping (102, 302), by a measurement processing module of the user equipment, processing of CSI corresponding to a part of the multiple aperiodic CSI processes and sending CSI obtained through measurement to the first network device or a second network device, wherein CSI corresponding to dropped processing of aperiodic CSI processes is replaced, by the user equipment, by a previous measurement result, and wherein each CSI process is associated with a channel measurement resource and an interference measurement resource.
A compound that is [((1R,2S,5R)-2-isopropyl-5-methyl-cyclohexanecarbonyl)-amino]-acetic acid isopropyl ester, or a pharmaceutically acceptable salt, hydrate, or solvate thereof, for use in a method of treatment of refractory chronic cough or idiopathic chronic cough.
A layer 2 processing method performed by a central unit, CU, comprising: sending channel reconstruction indication information to a distributed unit, DU; receiving a response message from the DU; generating a Radio Resource Control, RRC, reconfiguration message based on the response message; and sending the RRC reconfiguration message to a user equipment, UE, to enable the UE to perform a corresponding operation, characterized in that the channel reconstruction indication information comprises layer 2 reset indication information or synchronization reconfiguration indication information; wherein the layer 2 reset indication information or the synchronization reconfiguration indication information is used to instruct the DU to perform a layer 2 reset operation or to instruct the DU to perform a synchronization reconfiguration operation; wherein the response message carries a downlink transmission address newly allocated by the DU for each Data Radio Bearer, DRB. sending channel reconstruction indication information to a distributed unit, DU; receiving a response message from the DU; generating a Radio Resource Control, RRC, reconfiguration message based on the response message; and sending the RRC reconfiguration message to a user equipment, UE, to enable the UE to perform a corresponding operation, characterized in that the channel reconstruction indication information comprises layer 2 reset indication information or synchronization reconfiguration indication information; wherein the layer 2 reset indication information or the synchronization reconfiguration indication information is used to instruct the DU to perform a layer 2 reset operation or to instruct the DU to perform a synchronization reconfiguration operation; wherein the response message carries a downlink transmission address newly allocated by the DU for each Data Radio Bearer, DRB.
An axle assembly for a work vehicle comprising: - a hub defining a tapered inner surface and a first keyway portion extending radially outwardly from the tapered inner surface, the first keyway portion defining a first keyway surface; - a casing at least partially received within the hub, the casing defining a tapered outer surface and a second keyway portion, the second keyway portion extending radially inwardly from the tapered outer surface and defining a second keyway surface, the tapered outer surface extending parallel to the tapered inner surface and being configured to contact the tapered inner surface such that a tapered interface is defined between the casing and the hub, the first and second keyway portions (58, 42) configured to be circumferentially aligned such that a keyway is defined between the first and second keyway surfaces (59, 45); a key received within the keyway; wherein the first and second keyway surfaces (59, 45) extend in a direction non-parallel to the tapered interface; characterized in that it comprises a shaft configured to be received within the casing, the shaft defining a central axis, the tapered interface extending non-parallel to the central axis; wherein the first and second keyway surfaces (59, 45) extend in a direction non-parallel to the central axis,wherein the first and second keyway surfaces (59, 45) define a first angle greater than zero relative to the central axis, wherein the tapered interface defines a second angle relative to the central axis, wherein the first angle is less than the second angle. - a hub defining a tapered inner surface and a first keyway portion extending radially outwardly from the tapered inner surface, the first keyway portion defining a first keyway surface; - a casing at least partially received within the hub, the casing defining a tapered outer surface and a second keyway portion, the second keyway portion extending radially inwardly from the tapered outer surface and defining a second keyway surface, the tapered outer surface extending parallel to the tapered inner surface and being configured to contact the tapered inner surface such that a tapered interface is defined between the casing and the hub, the first and second keyway portions (58, 42) configured to be circumferentially aligned such that a keyway is defined between the first and second keyway surfaces (59, 45);