mhurhangee/patent-ind-claim-en huggingface dataset:
A control device , applied to an exoskeleton system , comprising: a sensing unit , configured to measure topographic data; and a processing unit , coupled to the sensing unit , configured to determine a frontal terrain of the exoskeleton system in a moving direction according to a measurement of the sensing unit to adjust an operation of a driving device of the exoskeleton system ; wherein the sensing unit is configured to measure a distance and a direction of at least one measuring point corresponding to the sensing unit to measure the topographic data, wherein the at least one measuring point is located in front of the exoskeleton system in the moving direction. a sensing unit , configured to measure topographic data; and a processing unit , coupled to the sensing unit , configured to determine a frontal terrain of the exoskeleton system in a moving direction according to a measurement of the sensing unit to adjust an operation of a driving device of the exoskeleton system ; wherein the sensing unit is configured to measure a distance and a direction of at least one measuring point corresponding to the sensing unit to measure the topographic data, wherein the at least one measuring point is located in front of the exoskeleton system in the moving direction.
Method for data management in a vehicle comprising a traction battery, wherein information is provided by a permanently active clock generator or timer, on the basis of which information the age of traction battery data sets which have been recorded during operation of the vehicle can be determined, wherein the recorded traction battery data sets are parameters of the traction battery and wherein the current time is ascertained from the information, and wherein the duration of an interruption in driving of the vehicle is ascertained on the basis of the age of the traction battery data sets and the current real time after restarting, and wherein optimized initialization values for filters and/or algorithms of the state identification and/or the power prediction of the traction battery are calculated depending on the duration of the interruption in driving and are used for initializing the filters and/or algorithms of the state identification and/or the power prediction of the traction battery.
A wireless communication device comprising: a communication unit configured to receive a reference signal transmitted from a different device by using wireless communication; and a control unit configured to determine, on the basis of reception power of the reference signal, a number of times of transmission, said number indicating how many times transmission target data is repeatedly transmitted to the different device, and to determine a transmission interval of the transmission target data on the basis of the determined number of times of transmission. a communication unit configured to receive a reference signal transmitted from a different device by using wireless communication; and a control unit configured to determine, on the basis of reception power of the reference signal, a number of times of transmission, said number indicating how many times transmission target data is repeatedly transmitted to the different device, and to determine a transmission interval of the transmission target data on the basis of the determined number of times of transmission.
Landing gear for light aircraft, comprising at least two wheels (R) adapted to be fixed onto a part of the fuselage (F) in front of the center of gravity of the light aircraft, and having a fixed tubular reinforcement of general triangular shape having an apex directed downward and a base positioned upward, the ends of the base and the apex of the reinforcement being coupled with articulation capability to a suspension system linked to the wheels (R), each end of the of the base of the reinforcement being angularly coupled to a wheel (R), by means of a damping member , while the apex of said reinforcement is symmetrically coupled to each of the wheels (R) by means of a connecting rod , each connecting rod having a first end coupled with articulation capability to the apex of the reinforcement and a second end coupled with articulation capability to a fixed fitting of the corresponding wheel (R); said second end of the connecting rod forming a fork with two branches connected by a rod to two pairs of spaced lugs (4b and 4c) of the fixed fitting of the corresponding wheel (R), each branch of the fork being housed between the spaced lugs (4b and 4c) of one of the pairs .
Wobble-forming or rotary-forging method in which a workpiece is brought to a specific temperature range and is formed by means of a forming tool , wherein the forming force (F) transmitted during the forming by an upper, first tool of the forming tool that is tilted with respect to the workpiece and moved in a rotary manner acts on a partial surface of a substantially rotationally symmetrical first forming surface to be formed of the workpiece , and the partial surface , which does not exceed the size of a sector of the first forming surface having a surface portion that is reduced compared to the entire first forming surface , said workpiece being continuously modified during the action of the substantially constant forming force (F) so that the entire first forming surface has been subjected to the forming force (F) after completion of one cycle, and wherein the forming tool , with a lower, second tool which is likewise tilted with respect to the workpiece and moved in a rotary manner, acts on a partial surface of a second forming surface of the workpiece opposite the first forming surface that is congruent with the partial surface of the first forming surface , wherein the two tools of the forming tool are moved synchronously with one another in uniform rotational movements, characterized in that the forming method is carried out between 50°C and 450°C in the temperature range of the lukewarm forming of the workpiece and with a degree of forming of in part φ > 4.
A silicon carbide device comprising: a silicon carbide layer ; and a metal layer provided on the silicon carbide layer , wherein the metal layer has a single crystal layer in an interface region at an interface with the silicon carbide layer , when it is assumed that a lattice constant, in an equilibrium state, of a metal constituting the metal layer is L, the single crystal layer in the interface region includes a first region in which a lattice constant L1 is smaller than L by 1.5% to 8%. a silicon carbide layer ; and a metal layer provided on the silicon carbide layer , wherein the metal layer has a single crystal layer in an interface region at an interface with the silicon carbide layer , when it is assumed that a lattice constant, in an equilibrium state, of a metal constituting the metal layer is L, the single crystal layer in the interface region includes a first region in which a lattice constant L1 is smaller than L by 1.5% to 8%.
A composition for stabilizing halogen-containing polymers comprising: a) disodium adipate, and b) at least one compound selected from the group consisting of M(ClO 4 )k and (CF 3 SO 3 ) n M wherein M is selected from the group consisting of H + , Li + , Na + , K + , Mg 2+ , Ca 2+ , Ba 2+ , Zn 2+ , Al 3+ and NH 4 + and k and n are 1, 2 or 3 depending on the valency of M, and wherein b) is not perchlorate of barium. a) disodium adipate, and b) at least one compound selected from the group consisting of M(ClO 4 )k and (CF 3 SO 3 ) n M wherein M is selected from the group consisting of H + , Li + , Na + , K + , Mg 2+ , Ca 2+ , Ba 2+ , Zn 2+ , Al 3+ and NH 4 + and k and n are 1, 2 or 3 depending on the valency of M, and
A corner segment configured to be mounted to a work implement , the corner segment comprising: a body having a plurality of surfaces including: a rear surface ; an upper surface ; a front surface ; a bottom surface ; an outer side surface ; an inner side surface ; and a corner surface that is adjacent to each of the front surface, the outer side surface, the upper surface, and the bottom surface, wherein a portion of the bottom surface forms a bottom surface wear zone , and a portion of the front surface forms a front surface wear zone ; and a plurality of protrusions provided on wear zones, the wear zones including the bottom surface wear zone and the front surface wear zone; characterised in that the bottom surface includes a planar portion , a ridged portion adjacent to the planar portion, and an inclined portion that is adjacent to the ridged portion and to the front surface, and that is angled relative to the planar portion, the ridged portion and the inclined portion having the bottom surface wear zone with protrusions. a rear surface ; an upper surface ; a front surface ; a bottom surface ; an outer side surface ; an inner side surface ; and a corner surface that is adjacent to each of the front surface, the outer side surface, the upper surface, and the bottom surface, wherein a portion of the bottom surface forms a bottom surface wear zone , and a portion of the front surface forms a front surface wear zone ; and a plurality of protrusions provided on wear zones, the wear zones including the bottom surface wear zone and the front surface wear zone; characterised in that the bottom surface includes a planar portion , a ridged portion adjacent to the planar portion, and an inclined portion that is adjacent to the ridged portion and to the front surface, and that is angled relative to the planar portion, the ridged portion and the inclined portion having the bottom surface wear zone with protrusions.
A method for restarting a prohibit timer in a wireless communication system, the method performed by a user equipment, UE, and comprising: starting the prohibit timer related to a transmission of a first UE-originated information, wherein UE-originated information comprises power preference information; receiving, from a network, a handover message, which includes a timer value; performing a handover procedure based on the received handover message; restarting the prohibit timer based on applying the received timer value included in the handover message; and stopping the prohibit timer based on whether the UE initiates a radio resource control, RRC, re-establishment procedure while the prohibit timer is running, wherein, upon initiating the RRC re-establishment procedure, the UE disables transmission of power preference information and stops the prohibit timer, wherein a transmission of another UE-originated information is restricted while the prohibit timer is running, and wherein the power preference information indicates whether the UE prefers a configuration for power saving. starting the prohibit timer related to a transmission of a first UE-originated information, wherein UE-originated information comprises power preference information; receiving, from a network, a handover message, which includes a timer value; performing a handover procedure based on the received handover message; restarting the prohibit timer based on applying the received timer value included in the handover message; and stopping the prohibit timer based on whether the UE initiates a radio resource control, RRC, re-establishment procedure while the prohibit timer is running, wherein, upon initiating the RRC re-establishment procedure, the UE disables transmission of power preference information and stops the prohibit timer, wherein a transmission of another UE-originated information is restricted while the prohibit timer is running, and wherein the power preference information indicates whether the UE prefers a configuration for power saving.
A hydraulic rotating machine adapted to be actuated and rotated by supply and discharge of a working fluid, comprising: a cylinder block to which a shaft is coupled, the cylinder block being configured to be rotate together with the shaft; a cylinder formed to have an opening portion on one end side of the cylinder block, a recessed portion being formed on an inner circumference of the cylinder; and a bush inserted from the opening portion of the cylinder and provided on the inside of the cylinder, characterized in that the bush has a projection portion filled into the recessed portion by plastic deformation, and the recessed portion is formed in such a manner that its width along an axial direction of the cylinder becomes smaller toward the depth direction being perpendicular to the axial direction of the cylinder. a cylinder block to which a shaft is coupled, the cylinder block being configured to be rotate together with the shaft; a cylinder formed to have an opening portion on one end side of the cylinder block, a recessed portion being formed on an inner circumference of the cylinder; and a bush inserted from the opening portion of the cylinder and provided on the inside of the cylinder, characterized in that the bush has a projection portion filled into the recessed portion by plastic deformation, and the recessed portion is formed in such a manner that its width along an axial direction of the cylinder becomes smaller toward the depth direction being perpendicular to the axial direction of the cylinder.
Motor vehicle comprising at least one outer body length extending between a front end and at least one rear end , each rear end being positioned next to a rear wheel passage of the vehicle , the longitudinal having a center core extended by at least one deformation leg extending from the core center so as to form a rear end of the spar , the vehicle being designed to deform itself, as a result of a vehicle-borne impact , so that at least one deformation leg impacts the wheel passage , each deformation leg being conformed to undergo a deformation during the wheel passage impact on the rear wheel passage to absorb some of the shock energy.
A compressor to increase a pressure of a fluid refrigerant, the compressor comprising: a magnetic thrust bearing configured to support rotation of a shaft , wherein the magnetic thrust bearing comprises: an annular thrust stator core that has a plurality of grooves extending partially and radially through the annular thrust stator core ; and an annular thrust rotor , the annular thrust rotor being disposed at least partially within an annular space defined by the annular thrust stator core , wherein the shaft extends through the annular thrust rotor , wherein the grooves begin on and extend axially across the radially inward external surface of the thrust stator core and also extend radially through the thrust stator core , but not as so far as to reach the radially outward external surface of the thrust stator core . an annular thrust stator core that has a plurality of grooves extending partially and radially through the annular thrust stator core ; and an annular thrust rotor , the annular thrust rotor being disposed at least partially within an annular space defined by the annular thrust stator core , wherein the shaft extends through the annular thrust rotor , wherein the grooves begin on and extend axially across the radially inward external surface of the thrust stator core and also extend radially through the thrust stator core , but not as so far as to reach the radially outward external surface of the thrust stator core .
A method of wireless communication, comprising: receiving a plurality of symbols comprising a transmitted codeword, the plurality of symbols including a first group of data symbols with a first modulation and coding scheme and a second group of data modulated pilot symbols with a second modulation and coding scheme, wherein the second group of data modulated pilot symbols are used in lieu of pilot symbols, and wherein the data modulated pilot symbols are symbols that contain data in all the locations where a pilot symbol is expected; and adaptively switching between applicable demodulation schemes for each group of the plurality of symbols, wherein adaptively switching between the demodulation schemes comprises: determining , for each symbol, whether the symbol occurs when a pilot symbol is expected to occur; and determining a carrier phase error based at least in part on the second group of data modulated pilot symbols. receiving a plurality of symbols comprising a transmitted codeword, the plurality of symbols including a first group of data symbols with a first modulation and coding scheme and a second group of data modulated pilot symbols with a second modulation and coding scheme, wherein the second group of data modulated pilot symbols are used in lieu of pilot symbols, and wherein the data modulated pilot symbols are symbols that contain data in all the locations where a pilot symbol is expected; and adaptively switching between applicable demodulation schemes for each group of the plurality of symbols, wherein adaptively switching between the demodulation schemes comprises: determining , for each symbol, whether the symbol occurs when a pilot symbol is expected to occur; and determining a carrier phase error based at least in part on the second group of data modulated pilot symbols. determining , for each symbol, whether the symbol occurs when a pilot symbol is expected to occur; and determining a carrier phase error based at least in part on the second group of data modulated pilot symbols.
A method performed by an electronic device for virtual reality, VR, the method comprising: displaying a guide for requesting a user to position a hand of a user with a pose of the hand in a predefined space; identifying positions and orientations for a plurality of sensors , the plurality of sensors configured to detect an orientation of fingers with respect to the hand of the user; obtaining at least one image for the hand of the user; calibrating the plurality of sensors based on the at least one image, the positions and the orientations for the plurality of sensors , and rules defined based on the positions and the orientations, wherein the rules for calibrating are defined for a conversion from measurement values of the sensors to a hand pose; identifying sensor data obtained by the plurality of sensors ; and tracking a pose of the hand based on the sensor data. displaying a guide for requesting a user to position a hand of a user with a pose of the hand in a predefined space; identifying positions and orientations for a plurality of sensors , the plurality of sensors configured to detect an orientation of fingers with respect to the hand of the user; obtaining at least one image for the hand of the user; calibrating the plurality of sensors based on the at least one image, the positions and the orientations for the plurality of sensors , and rules defined based on the positions and the orientations, wherein the rules for calibrating are defined for a conversion from measurement values of the sensors to a hand pose; identifying sensor data obtained by the plurality of sensors ; and tracking a pose of the hand based on the sensor data.
A stapler cartridge comprising: a staple pushing shuttle ; a knife member slidably coupled to the staple pushing shuttle , wherein the knife member comprises a cutting blade and a first guide track engagement feature ; and a cartridge body having a proximal end and a distal end , the staple pushing shuttle being slidably coupled to the cartridge body , the cartridge body comprising a plurality of openings at an upper surface for ejecting staples via a distal movement of the staple pushing shuttle , the cartridge body comprising a first guide track engaged by the first guide track engagement feature , the first guide track comprising a first track segment and a first transition ramp , the first track segment being configured so that the cutting blade protrudes from the cartridge body during a first portion of the distal movement of the staple pushing shuttle , the first transition ramp being joined to the first track segment and configured to cause the cutting blade to be retracted into the cartridge body during a second portion of the distal movement of the staple pushing shuttle . a staple pushing shuttle ; a knife member slidably coupled to the staple pushing shuttle , wherein the knife member comprises a cutting blade and a first guide track engagement feature ; and a cartridge body having a proximal end and a distal end , the staple pushing shuttle being slidably coupled to the cartridge body , the cartridge body comprising a plurality of openings at an upper surface for ejecting staples via a distal movement of the staple pushing shuttle , the cartridge body comprising a first guide track engaged by the first guide track engagement feature , the first guide track comprising a first track segment and a first transition ramp , the first track segment being configured so that the cutting blade protrudes from the cartridge body during a first portion of the distal movement of the staple pushing shuttle , the first transition ramp being joined to the first track segment and configured to cause the cutting blade to be retracted into the cartridge body during a second portion of the distal movement of the staple pushing shuttle .
A method for producing carbon nanotubes, comprising: A step of producing a catalyst-carrying support, comprising a support containing one or more elements selected from the group consisting of Si, Al, Mg, Zr, Ti, O, N, C, Mo, Ta and W and carbon-containing metal catalyst particles for carbon nanotube synthesis, said metal catalyst particles being selected from the group consisting of V, Cr, Mn, Fe, Co, Ni, Cu, Zn, Mo, W, and Au, said step comprising: a carbon-containing region forming step of flowing a carbon-containing compound gas without an unsaturated bond and hydrogen, using an inert carrier gas onto a catalyst-carrying support, comprising a support and catalyst particles carried on said support to form carbon-containing regions on surfaces thereof, wherein the concentration of the carbon-containing compound gas without an unsaturated bond is 0.1 to 20% by volume, based on the total amount of gases fed into a reactor, wherein the reaction temperature is 400 to 1000°C, and wherein the catalyst particles are formed by heating and reducing a catalyst raw material with hydrogen; and a carbon nanotube synthesizing step, wherein a raw material gas composed of an inert gas and a carbon source selected from the group, consisting of acetylene and ethylene, is flowed onto the catalyst-carrying support at a reaction temperature of 400 to 1000°C; characterized in that the carbon-containing compound gas without an unsaturated bond is flowed onto the catalyst-carrying support both in the carbon-containing region forming step and the carbon nanotube synthesizing step. a carbon-containing region forming step of flowing a carbon-containing compound gas without an unsaturated bond and hydrogen, using an inert carrier gas onto a catalyst-carrying support, comprising a support and catalyst particles carried on said support to form carbon-containing regions on surfaces thereof, wherein the concentration of the carbon-containing compound gas without an unsaturated bond is 0.1 to 20% by volume, based on the total amount of gases fed into a reactor, wherein the reaction temperature is 400 to 1000°C, and wherein the catalyst particles are formed by heating and reducing a catalyst raw material with hydrogen; and a carbon nanotube synthesizing step, wherein a raw material gas composed of an inert gas and a carbon source selected from the group, consisting of acetylene and ethylene, is flowed onto the catalyst-carrying support at a reaction temperature of 400 to 1000°C; characterized in that the carbon-containing compound gas without an unsaturated bond is flowed onto the catalyst-carrying support both in the carbon-containing region forming step and the carbon nanotube synthesizing step.