mhurhangee/patent-ind-claim-en huggingface dataset:
An auxiliary power unit "APU" generator system for an APU, comprising: a doubly-fed induction generator "DFIG" configured to be operatively connected to the APU to be turned by the APU and to have an output frequency that is a function of an excitation frequency and an APU speed; and a generator control module configured to control the excitation frequency to the DFIG to output a substantially constant frequency with changing APU speed to supply the substantially constant frequency to a load; characterized by further comprising an APU control module configured to control the APU speed to obtain an efficiency of the APU, wherein the efficiency of the APU is an optimum fuel efficiency as a function of one or more environmental conditions, and wherein the one or more environmental conditions include ambient temperature and/or density altitude. a doubly-fed induction generator "DFIG" configured to be operatively connected to the APU to be turned by the APU and to have an output frequency that is a function of an excitation frequency and an APU speed; and a generator control module configured to control the excitation frequency to the DFIG to output a substantially constant frequency with changing APU speed to supply the substantially constant frequency to a load; characterized by further comprising an APU control module configured to control the APU speed to obtain an efficiency of the APU, wherein the efficiency of the APU is an optimum fuel efficiency as a function of one or more environmental conditions, and wherein the one or more environmental conditions include ambient temperature and/or density altitude.
A cellular handset device, comprising: a configurable hardware circuit configured to process a received satellite signal according to a first hardware capability set when configured for a first operation mode and to process a received terrestrial beacon signal according to a second hardware capability set when configured for a second operation mode; and a hardware manager configured to change an operation mode of the configurable hardware circuit between the first operation mode and the second operation mode responsive to a hardware capability change request , wherein the hardware capability change request is initiated from a cellular network or initiated by a higher application layer of the cellular handset device, and wherein the hardware circuit comprises a reception chain, wherein the reception chain comprises an antenna circuit , a hardware front-end circuit , at least one mixer and at least one local oscillator which are configured to support the first hardware capability set when the hardware circuit is configured for the first operation mode and which are configured to support the second hardware capability set when the hardware circuit is configured for the second operation mode. a configurable hardware circuit configured to process a received satellite signal according to a first hardware capability set when configured for a first operation mode and to process a received terrestrial beacon signal according to a second hardware capability set when configured for a second operation mode; and a hardware manager configured to change an operation mode of the configurable hardware circuit between the first operation mode and the second operation mode responsive to a hardware capability change request , wherein the hardware capability change request is initiated from a cellular network or initiated by a higher application layer of the cellular handset device, and wherein the hardware circuit comprises a reception chain, wherein the reception chain comprises an antenna circuit , a hardware front-end circuit , at least one mixer and at least one local oscillator which are configured to support the first hardware capability set when the hardware circuit is configured for the first operation mode and which are configured to support the second hardware capability set when the hardware circuit is configured for the second operation mode.
A bolt setting method of a nail-shaped bolt with a head and a shaft extending from there, ending in a tapered manner into at least one component (B), preferably into a stack of at least two components arranged upon each other, out of metal and/or plastic material, with which the bolt is set into the component (B) nearly rotation-free with a straight-lined setting movement with at least two steps, wherein the bolt setting method includes the following steps: a. joining the bolt into the component (B) with a deforming stroke during which the bolt reaches a first joining speed of ≤4 m/s and the shaft completely penetrates the at least one component (B) with a portion of a maximum diameter with respect to a shaft length, without a bottom side of the head abutting the at least one component (B), in particular a component facing the head, characterized in that the bolt setting method includes the following step: b. after the deforming stroke, driving the bolt into the component (B) until a head abutment of the bottom side of the head on the at least one component (B), in particular the component facing the head, by at least one friction stroke with which a frictional connection between the shaft and the at least one component (B) is overcome and with which the bolt reaches a second joining speed that is smaller than the first joining speed. a. joining the bolt into the component (B) with a deforming stroke during which the bolt reaches a first joining speed of ≤4 m/s and the shaft completely penetrates the at least one component (B) with a portion of a maximum diameter with respect to a shaft length, without a bottom side of the head abutting the at least one component (B), in particular a component facing the head, characterized in that the bolt setting method includes the following step: b. after the deforming stroke, driving the bolt into the component (B) until a head abutment of the bottom side of the head on the at least one component (B), in particular the component facing the head, by at least one friction stroke with which a frictional connection between the shaft and the at least one component (B) is overcome and with which the bolt reaches a second joining speed that is smaller than the first joining speed.
Device for guiding carriers , each of which has an electrical charge and/or a magnetic moment, with a guide device for movably guiding the carriers in a movement region (B) with a curved or angled main path (H) for the carriers , with electrical connections arranged along the main path (H), characterized in that the device has a field-generating means for generating a field (F) for guiding the carriers at least substantially along the main path (H), so that electrical voltage or power can be tapped at the electrical connections , wherein the field-generating means and/or the field (F) for guiding the carriers is adapted or can be set and/or controlled in consideration of the speed of the carriers such that the carriers are guided on trajectories with radii of curvature on the order of magnitude of the radius of curvature (R) of the main path (H), that the guide device has or forms a two-dimensional electron gas or a thin, superconducting layer for forming the movement region (B), and that the flank or flanks of the movement region (B) for the carriers are embodied so as to be at least partially diffusely scattering and/or not exclusively specular.
An electronic device comprising: a battery ; a charging circuit configured to charge the battery using charging power; and a circuit board configured to be electrically connected to the charging circuit for providing the charging power, the circuit board including a first portion and a second portion disposed adjacent to the first portion , wherein a first coil , a second coil , and a resonance coil are disposed in the first portion of the circuit board , the first coil being disposed outside the second coil , and the resonance coil being disposed inside the second coil , wherein a third coil and a resonance capacitor are disposed in the second portion of the circuit board , the resonance capacitor being disposed inside the third coil , and the resonance coil and the resonance capacitor being electrically connected to each other to generate a designated resonance such that an external electronic device transmitting wireless power to the electronic device detects the generated resonance, and wherein the resonance coil and the resonance capacitor are not electrically connected to any of the first coil , second coil and third coil . a battery ; a charging circuit configured to charge the battery using charging power; and a circuit board configured to be electrically connected to the charging circuit for providing the charging power, the circuit board including a first portion and a second portion disposed adjacent to the first portion , wherein a first coil , a second coil , and a resonance coil are disposed in the first portion of the circuit board , the first coil being disposed outside the second coil , and the resonance coil being disposed inside the second coil , wherein a third coil and a resonance capacitor are disposed in the second portion of the circuit board , the resonance capacitor being disposed inside the third coil , and the resonance coil and the resonance capacitor being electrically connected to each other to generate a designated resonance such that an external electronic device transmitting wireless power to the electronic device detects the generated resonance, and wherein the resonance coil and the resonance capacitor are not electrically connected to any of the first coil , second coil and third coil .
A power distribution system comprising: at least two DC buses and at least two AC buses ; and a plurality of converter units (130; 430, 440) interconnecting the DC buses and the AC buses in a ring comprising at least one of the DC buses coupled to two of the at least two AC buses by at least two of the converter units (130; 430, 440), characterized in that each of the at least two AC buses electrically interconnects two of the converter units (130; 430, 440). at least two DC buses and at least two AC buses ; and a plurality of converter units (130; 430, 440) interconnecting the DC buses and the AC buses in a ring comprising at least one of the DC buses coupled to two of the at least two AC buses by at least two of the converter units (130; 430, 440), characterized in that each of the at least two AC buses electrically interconnects two of the converter units (130; 430, 440).
A method for the production of IPDA comprising the steps of: I. converting IPN with ammonia and hydrogen to IPDA, II. removing hydrogen and/or ammonia from the effluent from step I III. separating the effluent from step II in one or more steps into (i) a fraction comprising an organic phase having a boiling point lower than IPDA (ii) a fraction comprising an aqueous phase having a boing point lower than IPDA; (iii) a fraction comprising IPDA (iv) a fraction comprising components having a boiling point higher than IPDA; and IV. subjecting the fraction (ii) to one or more waste-water pretreatment steps, selected from the group consisting of evaporation, oxidation and adsorption. I. converting IPN with ammonia and hydrogen to IPDA, II. removing hydrogen and/or ammonia from the effluent from step I III. separating the effluent from step II in one or more steps into (i) a fraction comprising an organic phase having a boiling point lower than IPDA (ii) a fraction comprising an aqueous phase having a boing point lower than IPDA; (iii) a fraction comprising IPDA (iv) a fraction comprising components having a boiling point higher than IPDA; and (i) a fraction comprising an organic phase having a boiling point lower than IPDA (ii) a fraction comprising an aqueous phase having a boing point lower than IPDA; (iii) a fraction comprising IPDA (iv) a fraction comprising components having a boiling point higher than IPDA; and IV. subjecting the fraction (ii) to one or more waste-water pretreatment steps, selected from the group consisting of evaporation, oxidation and adsorption.
A portable laundry device including: i) a flexible waterproof housing for housing a textile item, water and cleaning material; ii) an opening in the housing for inserting or removing the textile item; and iii) a seal for sealing the opening ; wherein an inner surface of the housing includes a frictional washing surface , characterised in that the frictional washing surface includes a plurality of projections with a height of between 0.5 mm and 10 mm, that the housing includes an air outlet substantially adjacent to the seal for expelling air from the sealed housing to enable a user to grip or press on an outer surface of the housing to press and rub the textile item against the frictional washing surface to effect cleaning, and that the air outlet includes a valve or cap to control airflow through the outlet.
A control system for an unmanned vehicle, comprising: a first processing unit configured to execute a primary autopilot process for controlling the unmanned vehicle; a programmable logic array in operative communication with the first processing unit ; a state machine configured in the programmable logic array , the state machine configured to enable control of the unmanned vehicle according to a backup autopilot process in response to an invalid output of the first processing unit ; wherein: the primary autopilot process includes a first set of processor readable instructions associated with controlling one or more vehicle devices of the unmanned vehicle; and the backup autopilot process includes a second set of processor readable instructions that is different than the first set of processor readable instructions and is associated with controlling the one or more vehicle devices of the unmanned vehicle; wherein the first set of processor readable instructions includes one or more functions that are not included in the second set of processor readable instructions such that the backup autopilot process is a simplified version of the primary autopilot process . a first processing unit configured to execute a primary autopilot process for controlling the unmanned vehicle; a programmable logic array in operative communication with the first processing unit ; a state machine configured in the programmable logic array , the state machine configured to enable control of the unmanned vehicle according to a backup autopilot process in response to an invalid output of the first processing unit ; the primary autopilot process includes a first set of processor readable instructions associated with controlling one or more vehicle devices of the unmanned vehicle; and the backup autopilot process includes a second set of processor readable instructions that is different than the first set of processor readable instructions and is associated with controlling the one or more vehicle devices of the unmanned vehicle; wherein the first set of processor readable instructions includes one or more functions that are not included in the second set of processor readable instructions such that the backup autopilot process is a simplified version of the primary autopilot process .
A method for operating in a User Equipment, UE, for configuring HARQ feedback transmission in uplink in a wireless communication system, wherein a plurality of component carriers are configured for the UE for carrier aggregation, comprising: - receiving (S710), from a radio network node, assisting information, the assisting information comprising a scheduled component carrier index, indicating one or more scheduled component carriers of the plurality of component carriers configured for the UE; - determining (S720), based on the assisting information, a number and order of the HARQ feedback bits for the one or more scheduled component carriers, the number and order of the HARQ feedback bits for downlink transmission being determined according to an ascending or descending order of the scheduled component carrier index; and - transmitting (S730), to the radio network node, the HARQ feedback bits for the scheduled component carriers for the UE based on the determined number and order of the HARQ feedback bits, without transmitting padding bits due to unscheduled but configured component carriers, thereby reducing transmission of padding bits, wherein transmitting the HARQ feedback bits further comprises using for a channel with large capacity" a coding rate and a transmission power which are lowered compared to transmission of the HARQ feedback bits with padding bits on the channel. - receiving (S710), from a radio network node, assisting information, the assisting information comprising a scheduled component carrier index, indicating one or more scheduled component carriers of the plurality of component carriers configured for the UE; - determining (S720), based on the assisting information, a number and order of the HARQ feedback bits for the one or more scheduled component carriers, the number and order of the HARQ feedback bits for downlink transmission being determined according to an ascending or descending order of the scheduled component carrier index; and - transmitting (S730), to the radio network node, the HARQ feedback bits for the scheduled component carriers for the UE based on the determined number and order of the HARQ feedback bits, without transmitting padding bits due to unscheduled but configured component carriers, thereby reducing transmission of padding bits, wherein transmitting the HARQ feedback bits further comprises using for a channel with large capacity" a coding rate and a transmission power which are lowered compared to transmission of the HARQ feedback bits with padding bits on the channel.
A liposomal topical formulation, comprising: a plurality of liposomes; an aqueous gel matrix in which the plurality of liposomes are dispersed, wherein the aqueous gel matrix comprises a gelling agent, a water-soluble silicone compound that is a PEG-X silicone wherein X is an integer of 6-20 or a PPG-X-silicone wherein X is an integer of 8-20, a film forming agent that is a polysilsesquioxane compound at a concentration of 1-20% by weight of the total composition, and water; and finasteride or dutasteride entrapped in the liposomes. a plurality of liposomes; an aqueous gel matrix in which the plurality of liposomes are dispersed, wherein the aqueous gel matrix comprises a gelling agent, a water-soluble silicone compound that is a PEG-X silicone wherein X is an integer of 6-20 or a PPG-X-silicone wherein X is an integer of 8-20, a film forming agent that is a polysilsesquioxane compound at a concentration of 1-20% by weight of the total composition, and water; and finasteride or dutasteride entrapped in the liposomes.
A method, performed by a terminal, of registering biometric information, the method comprising: transmitting (S410) a registration request and biometric capability information of the terminal to a server, the biometric capability information being transmitted while requesting the server to register information related to a user's biometric information, wherein the biometric capability information of the terminal comprises information about a biometric technology supported by the terminal; receiving (S420) biometric capability information of the server from the server, wherein the biometric capability information of the server comprises information about a biometric technology supported by the server based on the biometric capability information transmitted from the terminal to the server; selecting a biometric technology based on the received biometric capability information of the server; acquiring (S430) the user's biometric information, based on the selected biometric technology; acquiring (S440) a pseudonymous identifier and auxiliary data based on the user's biometric information; and transmitting (S450) the pseudonymous identifier and the auxiliary data to the server. transmitting (S410) a registration request and biometric capability information of the terminal to a server, the biometric capability information being transmitted while requesting the server to register information related to a user's biometric information, wherein the biometric capability information of the terminal comprises information about a biometric technology supported by the terminal; receiving (S420) biometric capability information of the server from the server, wherein the biometric capability information of the server comprises information about a biometric technology supported by the server based on the biometric capability information transmitted from the terminal to the server; selecting a biometric technology based on the received biometric capability information of the server; acquiring (S430) the user's biometric information, based on the selected biometric technology; acquiring (S440) a pseudonymous identifier and auxiliary data based on the user's biometric information; and transmitting (S450) the pseudonymous identifier and the auxiliary data to the server.
A next generation node B, gNB, for providing access to 5G Core Network, 5GC, comprising: a distributed unit, DU , configured to communicate with a user equipment, UE , and route a set of messages through a user plane and a control plane, the set of messages comprising control plane messages and user plane messages; a central unit control plane, CU-CP , configured to process the control plane messages from the DU and wherein the CU-CP has a control plane interface with the DU ; and a central unit user plane, CU-UP , configured to process the user plane messages from the DU and wherein the CU-UP has a user plane interface with the DU , wherein the CU-CP is configured to: perform RRC functions for the UE wherein RRC messages from the DU meant for the CU-CP are first sent to, processed, and forwarded by the CU-UP, and RRC messages from the CU-CP meant for the DU first sent to, processed, and forwarded by the CU-UP; perform air interface control for the UE ; perform RRM for the UE ; and support EPS mobility management, EMM, and EPS session management, ESM. a distributed unit, DU , configured to communicate with a user equipment, UE , and route a set of messages through a user plane and a control plane, the set of messages comprising control plane messages and user plane messages; a central unit control plane, CU-CP , configured to process the control plane messages from the DU and wherein the CU-CP has a control plane interface with the DU ; and a central unit user plane, CU-UP , configured to process the user plane messages from the DU and wherein the CU-UP has a user plane interface with the DU , wherein the CU-CP is configured to: perform RRC functions for the UE wherein RRC messages from the DU meant for the CU-CP are first sent to, processed, and forwarded by the CU-UP, and RRC messages from the CU-CP meant for the DU first sent to, processed, and forwarded by the CU-UP; perform air interface control for the UE ; perform RRM for the UE ; and support EPS mobility management, EMM, and EPS session management, ESM. perform RRC functions for the UE wherein RRC messages from the DU meant for the CU-CP are first sent to, processed, and forwarded by the CU-UP, and RRC messages from the CU-CP meant for the DU first sent to, processed, and forwarded by the CU-UP; perform air interface control for the UE ; perform RRM for the UE ; and support EPS mobility management, EMM, and EPS session management, ESM.
A urinary catheter, comprising: a catheter tube made from a polymeric material comprising a blend of (i) thermoplastic elastomer comprising poly(1-butene) and (ii) polyolefin; wherein the polymeric material has a tan δ peak at 0°C or less and a storage modulus greater than about 10 MPa in the temperature range of 0°C and 40°C measured at 1Hz oscillation frequency. a catheter tube made from a polymeric material comprising a blend of (i) thermoplastic elastomer comprising poly(1-butene) and (ii) polyolefin; wherein the polymeric material has a tan δ peak at 0°C or less and a storage modulus greater than about 10 MPa in the temperature range of 0°C and 40°C measured at 1Hz oscillation frequency.