mhurhangee/patent-ind-claim-en huggingface dataset:
A method for estimating a state of charge of a battery, including the steps of: a) providing a battery model specific to the battery, the battery model providing a section-wise defined correlation of terminal voltage values depending on state of charge values, wherein the curve is strictly monotonic decreasing in a section and strictly monotonic increasing in another section, and wherein each of said sections of the battery model delimits a monotonic dependence of the correlation from others of said sections; b) measuring a terminal voltage value of the battery; c) identifying one of said sections of the battery model based on at least one operational condition of the battery; d) retrieving, within the identified section of the battery model, a state of charge value correlating to the measured terminal voltage, and; e) returning the retrieved state of charge value as an estimated state of charge of the battery. a) providing a battery model specific to the battery, the battery model providing a section-wise defined correlation of terminal voltage values depending on state of charge values, wherein the curve is strictly monotonic decreasing in a section and strictly monotonic increasing in another section, and wherein each of said sections of the battery model delimits a monotonic dependence of the correlation from others of said sections; b) measuring a terminal voltage value of the battery; c) identifying one of said sections of the battery model based on at least one operational condition of the battery; d) retrieving, within the identified section of the battery model, a state of charge value correlating to the measured terminal voltage, and; e) returning the retrieved state of charge value as an estimated state of charge of the battery.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from the base station, a medium access control, MAC, control element, CE, message including a transmission configuration indication, TCI, state indication for a control resource set with ID zero, in case that a plurality of TCI states are configured for the control resource set with ID zero, wherein the TCI state indication indicates a TCI state among the plurality of TCI states; identifying a synchronization signal and physical broadcast channel, SS/PBCH, block based on the TCI state indication; obtaining a configuration of the control resource set with ID zero and a configuration of a TypeO-PDCCH common search space from the PBCH contained in the identified SS/PBCH block; and monitoring a PDCCH candidate to receive downlink control information, DCI, in the TypeO-PDCCH common search space at a monitoring occasion associated with the identified SS/PBCH block, based on the configurations, wherein the UE is provided a cell specific radio network temporary identifier, C-RNTI, and wherein the DCI is scrambled with the C-RNTI and is received via a unicast transmission. receiving, from the base station, a medium access control, MAC, control element, CE, message including a transmission configuration indication, TCI, state indication for a control resource set with ID zero, in case that a plurality of TCI states are configured for the control resource set with ID zero, wherein the TCI state indication indicates a TCI state among the plurality of TCI states; identifying a synchronization signal and physical broadcast channel, SS/PBCH, block based on the TCI state indication; obtaining a configuration of the control resource set with ID zero and a configuration of a TypeO-PDCCH common search space from the PBCH contained in the identified SS/PBCH block; and monitoring a PDCCH candidate to receive downlink control information, DCI, in the TypeO-PDCCH common search space at a monitoring occasion associated with the identified SS/PBCH block, based on the configurations, wherein the UE is provided a cell specific radio network temporary identifier, C-RNTI, and wherein the DCI is scrambled with the C-RNTI and is received via a unicast transmission.
RF power measurement module comprising - a measuring device for high-frequency power with a microprocessor and at least one RF interface to an RF input stage, - an external power supply for the measuring device, - a housing , comprising - a display device , - a status display , - an operating device , - at least two RF inputs , - at least one communication interface , wherein the housing has a first plug-in device with locking device and operating voltage supply, further comprising a circuit for extending the dynamic range of the RF measurement with and for integrated circuits. - a measuring device for high-frequency power with a microprocessor and at least one RF interface to an RF input stage, - an external power supply for the measuring device, - a housing , comprising - a display device , - a status display , - an operating device , - at least two RF inputs , - at least one communication interface , - a display device , - a status display , - an operating device , - at least two RF inputs , - at least one communication interface , wherein the housing has a first plug-in device with locking device and operating voltage supply, further comprising a circuit for extending the dynamic range of the RF measurement with and for integrated circuits.
A polymeric device, wherein the polymeric device is formed as a spiral tube configured to be rotatably attached on an insertion section of an endoscope , comprising: an elongated hollow tube having an outer surface; and a spiral fin wound around the outer surface of the hollow tube ; wherein the hollow tube and the spiral fin are formed of a single unitary piece through a molding process; wherein an end portion of the spiral tube includes an internal flow channel in the form of a longitudinal projection having an increased thickness in a radial direction of the hollow tube . an elongated hollow tube having an outer surface; and a spiral fin wound around the outer surface of the hollow tube ; wherein the hollow tube and the spiral fin are formed of a single unitary piece through a molding process; wherein an end portion of the spiral tube includes an internal flow channel in the form of a longitudinal projection having an increased thickness in a radial direction of the hollow tube .
A catalyst composition comprising: a. a zeolite material having a small-pore framework having a maximum ring size of 8, wherein the zeolite has a CHA framework type, wherein the zeolite is SSZ-13, and a silica to alumina mole ratio (SAR) of 15 to 20; b. 1.5 to 5 weight percent of an exchanged non-aluminum transition metal which is copper, based on the total weight of the zeolite; and c. 1.35 to 13.5 weight percent of cerium, based on the total weight of the zeolite, wherein said cerium is present in a form selected from exchanged cerium ions, monomeric ceria, oligomeric ceria, and combinations thereof, provided that said oligomeric ceria has a particle size of less than 5 μm. a. a zeolite material having a small-pore framework having a maximum ring size of 8, wherein the zeolite has a CHA framework type, wherein the zeolite is SSZ-13, and a silica to alumina mole ratio (SAR) of 15 to 20; b. 1.5 to 5 weight percent of an exchanged non-aluminum transition metal which is copper, based on the total weight of the zeolite; and c. 1.35 to 13.5 weight percent of cerium, based on the total weight of the zeolite, wherein said cerium is present in a form selected from exchanged cerium ions, monomeric ceria, oligomeric ceria, and combinations thereof, provided that said oligomeric ceria has a particle size of less than 5 μm.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, a physical uplink control channel, PUCCH, configuration and a physical downlink shared channel, PDSCH, configuration, the PUCCH configuration including information on a number of slots and information on a length of a subslot; receiving, from the base station, downlink control information, DCI, including resource allocation information; receiving, from the base station, data based on the PDSCH configuration and the resource allocation information; and performing repetition of PUCCH transmission for the data over N slots based on the PUCCH configuration, wherein N indicates the number of slots, and wherein the repetition of the PUCCH transmission is performed based on alternating between multiple transmission and reception points, TRPs, per L repetitions of the PUCCH transmission. receiving, from a base station, a physical uplink control channel, PUCCH, configuration and a physical downlink shared channel, PDSCH, configuration, the PUCCH configuration including information on a number of slots and information on a length of a subslot; receiving, from the base station, downlink control information, DCI, including resource allocation information; receiving, from the base station, data based on the PDSCH configuration and the resource allocation information; and performing repetition of PUCCH transmission for the data over N slots based on the PUCCH configuration, wherein N indicates the number of slots, and wherein the repetition of the PUCCH transmission is performed based on alternating between multiple transmission and reception points, TRPs, per L repetitions of the PUCCH transmission.
Master brake cylinder assembly for a motor vehicle brake system, comprising: - at least one piston which is displaceable along an extension axis (V) and, conjointly with a housing assembly , delimits a pressure chamber; - a force input member which is displaceable as a function of a brake-pedal activation and for conjoint displacement is coupled, or able to be coupled, to the piston ; - an elongate position encoder element which is displaceable as a function of an activation of the force input member ; - a detection unit which is configured for detecting a displacement of the position encoder element ; and - a receptacle region which is configured for receiving the position encoder element at least in portions, characterized in that a first end of the position encoder element is disposed in a first housing region (F) of the master brake cylinder assembly , and the detection unit is disposed in a second housing region (S) of the master brake cylinder assembly , wherein the receptacle region interconnects the first housing region (F) and the second housing region (S); and wherein the master brake cylinder assembly furthermore comprises at least one first seal assembly which is disposed in the receptacle region as well as in a fluid path between the first housing region (F) and the second housing region (S). - at least one piston which is displaceable along an extension axis (V) and, conjointly with a housing assembly , delimits a pressure chamber; - a force input member which is displaceable as a function of a brake-pedal activation and for conjoint displacement is coupled, or able to be coupled, to the piston ; - an elongate position encoder element which is displaceable as a function of an activation of the force input member ; - a detection unit which is configured for detecting a displacement of the position encoder element ; and - a receptacle region which is configured for receiving the position encoder element at least in portions,
A method of electronically controlling a light beam distribution of a solid-state luminaire , the method comprising: presenting a field of selectable control features on a graphical user interface (GUI) on a computing device configured to be communicatively coupled with the solid-state luminaire , wherein at least one of the field of selectable control features is presented as a graphical canvas including two or more selectable nodes each corresponding to one or more light sources of the solid-state luminaire ; and adjusting the light beam distribution of the solid-state luminaire based on a selection of one of the two or more selectable nodes . presenting a field of selectable control features on a graphical user interface (GUI) on a computing device configured to be communicatively coupled with the solid-state luminaire , wherein at least one of the field of selectable control features is presented as a graphical canvas including two or more selectable nodes each corresponding to one or more light sources of the solid-state luminaire ; and adjusting the light beam distribution of the solid-state luminaire based on a selection of one of the two or more selectable nodes .
A discharge lamp comprising: a light emitting part having an anode and a cathode which are opposing each other in a predetermined direction; a glass member covering the light emitting part; a base member coupled to the light emitting portion; a metal member having an opening on a side surface through which a cooling medium can flow, the metal member coupled to the base member; a cable member that supplies electric power to the base member through the metal member and the cooling medium that flows through the opening and cools the base member; and a connecting member that connects the metal member and the cable member, wherein: the cable member having a tubular member that supplies the cooling medium, and an electric power cable that covers the tubular member and supplies the electric power to the metal member. a light emitting part having an anode and a cathode which are opposing each other in a predetermined direction; a glass member covering the light emitting part; a base member coupled to the light emitting portion; a metal member having an opening on a side surface through which a cooling medium can flow, the metal member coupled to the base member; a cable member that supplies electric power to the base member through the metal member and the cooling medium that flows through the opening and cools the base member; and a connecting member that connects the metal member and the cable member, wherein: the cable member having a tubular member that supplies the cooling medium, and an electric power cable that covers the tubular member and supplies the electric power to the metal member.
A blade outer air seal assembly for a gas turbine engine , comprising: a blade outer air seal having a plurality of segments extending circumferentially about an axis (A) and mounted in a carrier ; at least two of the plurality of segments having a first wall extending radially outward from a base portion , the base portion having a radially inner side (R1) and a radially outer side (R2); and characterised by a heat shield abutting the radially outer side of the at least two segments , the heat shield formed from a ceramic material. a blade outer air seal having a plurality of segments extending circumferentially about an axis (A) and mounted in a carrier ; at least two of the plurality of segments having a first wall extending radially outward from a base portion , the base portion having a radially inner side (R1) and a radially outer side (R2); and characterised by a heat shield abutting the radially outer side of the at least two segments , the heat shield formed from a ceramic material.
Composition comprising surface-modified inorganic nanoscale solid particles which have, on the surface, organic radicals with hydroxyl groups and/or epoxy groups, and at least one isocyanatosilane with blocked isocyanate groups, or condensate thereof, wherein the inorganic nanoscale particles are of SiO 2 , Al 2 O 3 , ITO, ATO, AlOOH, Ta 2 O 5 , ZrO 2 and/or TiO 2 and have been surface-modified with hydrolyzable silanes which have, on an unhydrolyzable substituent, a hydroxyl group and/or epoxy group, where condensation of these silanes with further silanes gave organic radicals that contain more than one hydroxyl group and/or epoxy group, and the organic radicals having hydroxyl groups and/or epoxy groups are derived from surface modification with glycidoxypropyltrimethoxysilane, glycidoxypropyltriethoxysilane, 3,4-epoxybutyltri(m)ethoxysilane and/or 2-(3,4-epoxycyclohexyl)ethyltri(m)ethoxysilane.
A food product valve assembly for operational placement between a food supply tube and a resiliently flexible food bag of a food product dispensing machine, the food product valve assembly comprising: a valve including a body defining a first flow passage , a cap engaged to the body and including a hole in communication with the first flow passage , and a resiliently flexible member sealably biased between the body and the cap , wherein the resiliently flexible member includes a self-sealing piercing constructed and arranged to open for communication between the hole and the first flow passage ; and a fitting including a first end segment engageable to the food supply tube and a second end segment constructed and arranged to pierce the resiliently flexible member , wherein the fitting defines a second flow passage that communicates through the first and second end segments for fluid communication between the first flow passage when assembled, wherein the second end segment is a barbed end segment, wherein the fitting includes a circumferentially continuous sealing face that is configured to seal to the resiliently flexible member when the fitting extends through the self-sealing piercing , and wherein the resiliently flexible member is sealably biased radially against the circumferentially continuous sealing face of the fitting when assembled. a valve including a body defining a first flow passage , a cap engaged to the body and including a hole in communication with the first flow passage , and a resiliently flexible member sealably biased between the body and the cap , wherein the resiliently flexible member includes a self-sealing piercing constructed and arranged to open for communication between the hole and the first flow passage ; and a fitting including a first end segment engageable to the food supply tube and a second end segment constructed and arranged to pierce the resiliently flexible member , wherein the fitting defines a second flow passage that communicates through the first and second end segments for fluid communication between the first flow passage when assembled, wherein the second end segment is a barbed end segment, wherein the fitting includes a circumferentially continuous sealing face that is configured to seal to the resiliently flexible member when the fitting extends through the self-sealing piercing , and wherein the resiliently flexible member is sealably biased radially against the circumferentially continuous sealing face of the fitting when assembled.
A multiple-stage amplifier comprising: a driver stage transistor with a first gate terminal , a first drain terminal and a first source terminal , wherein the driver stage transistor has a first power density, the first gate terminal is configured to receive an input RF signal, and the first source terminal is electrically coupled to a ground node ; a first drain bias circuit coupled to the first drain terminal of the driver stage transistor, and configured to provide a first drain bias voltage from a first bias input terminal to the first drain terminal, wherein the driver stage transistor and the first drain bias circuit are integrally formed in a first semiconductor die ; a final stage transistor with a second gate terminal , a second drain terminal and a second source terminal , wherein the final stage transistor is integrally formed in a second semiconductor die , the second source terminal is electrically coupled to a ground node , and wherein the highest ratio of the first power density of the driver stage transistor to a second power density of the final stage transistor is 1:2; a second drain bias circuit coupled to the second drain terminal of the final stage transistor , and configured to provide a second drain bias voltage from a second bias input terminal to the second drain terminal, wherein the second drain bias voltage equals the first drain bias voltage; and an interstage impedance matching circuit coupled between the first drain terminal and the second gate terminal ; wherein the multiple-stage amplifier is characterized in that the second drain bias circuit is integrally formed in the second semiconductor die . a driver stage transistor with a first gate terminal , a first drain terminal and a first source terminal , wherein the driver stage transistor has a first power density, the first gate terminal is configured to receive an input RF signal, and the first source terminal is electrically coupled to a ground node ; a first drain bias circuit coupled to the first drain terminal of the driver stage transistor, and configured to provide a first drain bias voltage from a first bias input terminal to the first drain terminal, wherein the driver stage transistor and the first drain bias circuit are integrally formed in a first semiconductor die ; a final stage transistor with a second gate terminal , a second drain terminal and a second source terminal , wherein the final stage transistor is integrally formed in a second semiconductor die , the second source terminal is electrically coupled to a ground node , and wherein the highest ratio of the first power density of the driver stage transistor to a second power density of the final stage transistor is 1:2; a second drain bias circuit coupled to the second drain terminal of the final stage transistor , and configured to provide a second drain bias voltage from a second bias input terminal to the second drain terminal, wherein the second drain bias voltage equals the first drain bias voltage; and an interstage impedance matching circuit coupled between the first drain terminal and the second gate terminal ;
A reflectometer for testing a device, the reflectometer comprising: a source of pulsed radiation; a first photoconductive element configured to output a pulse in response to irradiation from said pulsed source; a second photoconductive element configured to receive a pulse; a transmission line arrangement configured to direct the pulse from the first photoconductive element to the device under test and to direct the pulse reflected from the device under test to the second photoconductive element ; and a termination resistance provided for said transmission line configured to match the impedance of the transmission line, wherein the termination resistance is configured to absorb a signal reflected back to the first photoconductive element and/or the second photoconductive element, wherein the path length from the first photoconductive element to the second photoconductive element is substantially shorter than the path length from the first photoconductive element to the device under test to the second photoconductive element , such that there is no overlap between the signal from the first photoconductive element to the second photoconductive element , and the signal from the first photoconductive element to the device under test to the second photoconductive element in the time domain. a source of pulsed radiation; a first photoconductive element configured to output a pulse in response to irradiation from said pulsed source; a second photoconductive element configured to receive a pulse; a transmission line arrangement configured to direct the pulse from the first photoconductive element to the device under test and to direct the pulse reflected from the device under test to the second photoconductive element ; and a termination resistance provided for said transmission line configured to match the impedance of the transmission line, wherein the termination resistance is configured to absorb a signal reflected back to the first photoconductive element and/or the second photoconductive element, wherein the path length from the first photoconductive element to the second photoconductive element is substantially shorter than the path length from the first photoconductive element to the device under test to the second photoconductive element , such that there is no overlap between the signal from the first photoconductive element to the second photoconductive element , and the signal from the first photoconductive element to the device under test to the second photoconductive element in the time domain.