mhurhangee/ep-ind-claims huggingface dataset:
A magnetic memory cell, comprising: a substrate having a memory region; a select transistor on the substrate within the memory region; a first dielectric layer disposed on the substrate, wherein the first dielectric layer covers the memory region a and the select transistor; transistor; a landing pad in the first dielectric layer, wherein the landing pad is situated in a first horizontal plane and is electrically coupled to a drain region of the select transistor; a second dielectric layer covering the first dielectric layer and the landing pad; a cylindrical memory stack in the second dielectric layer, wherein the cylindrical memory stack comprises a bottom electrode electrically coupled to the landing pad and a top electrode electrically coupled to a bit line disposed above the second dielectric layer; and a source line in the first dielectric, wherein the source line is situated in a second horizontal plane and is electrically coupled to a source region of the select transistor, wherein the second horizontal plane is lower than the first horizontal plane. a substrate having a memory region; a select transistor on the substrate within the memory region; a first dielectric layer disposed on the substrate, wherein the first dielectric layer covers the memory region a and the select transistor; transistor; a landing pad in the first dielectric layer, wherein the landing pad is situated in a first horizontal plane and is electrically coupled to a drain region of the select transistor; a second dielectric layer covering the first dielectric layer and the landing pad; a cylindrical memory stack in the second dielectric layer, wherein the cylindrical memory stack comprises a bottom electrode electrically coupled to the landing pad and a top electrode electrically coupled to a bit line disposed above the second dielectric layer; and a source line in the first dielectric, wherein the source line is situated in a second horizontal plane and is electrically coupled to a source region of the select transistor, wherein the second horizontal plane is lower than the first horizontal plane.
Aeronautical conveying and release device actuated by a pyrotechnic cartridge, said device comprising at least: - a body in which a housing is provided, said body comprising a recess, the recess having an open end and a bottom, and - a cartridge adapter capable of closing the recess and forming a chamber capable of housing the cartridge, characterized in that: - the device comprises an indicator mounted, on an outer face of the body, movably between a first position and a second position, - the cartridge adapter comprises a bolt capable of being screwed into the housing so that in the presence of a pyrotechnic cartridge, the bolt can be screwed to a first depth where the bolt abuts against the pyrotechnic cartridge, the pyrotechnic cartridge being in abutment against the bottom of the recess, and in the absence of a pyrotechnic cartridge, the bolt can be screwed to a second depth greater than the first depth, and - the bolt at the first depth prohibits the first position for the indicator, while the bolt at the second depth leaves the indicator free to move. - a body in which a housing is provided, said body comprising a recess, the recess having an open end and a bottom, and - a cartridge adapter capable of closing the recess and forming a chamber capable of housing the cartridge, - the device comprises an indicator mounted, on an outer face of the body, movably between a first position and a second position, - the cartridge adapter comprises a bolt capable of being screwed into the housing so that in the presence of a pyrotechnic cartridge, the bolt can be screwed to a first depth where the bolt abuts against the pyrotechnic cartridge, the pyrotechnic cartridge being in abutment against the bottom of the recess, and in the absence of a pyrotechnic cartridge, the bolt can be screwed to a second depth greater than the first depth, and in the presence of a pyrotechnic cartridge, the bolt can be screwed to a first depth where the bolt abuts against the pyrotechnic cartridge, the pyrotechnic cartridge being in abutment against the bottom of the recess, and in the absence of a pyrotechnic cartridge, the bolt can be screwed to a second depth greater than the first depth, and - the bolt at the first depth prohibits the first position for the indicator, while the bolt at the second depth leaves the indicator free to move.
A heavy-duty pneumatic tire comprising: a section width being equal to or less than 335 mm; an aspect ratio being equal to or less than 55%; a toroidal carcass extending between axially spaced bead portions through a tread portion and sidewall portions, wherein the carcass comprises a carcass ply comprising a main portion extending between bead cores each disposed in a respective one of the bead portions through the tread portion and the sidewall portions, and a turn-up portion turned up around each bead core of each bead portion from axially inside of the tire to outside of the tire and extending to a radially outer end thereof; a belt layer disposed radially outward of the carcass in the tread portion, wherein the radially outer end of the turn-up portion is located between the main portion and the belt layer in the tread portion; a sidewall rubber defining an outer sidewall profile of each sidewall portion; and a chafer rubber defining an outer bead profile of each bead portion, characterized in that in each bead portion, on a straight line that is perpendicular to the main portion of the carcass ply and passes a radially inner end of the sidewall rubber, the chafer rubber has a thickness of from 40% to 60% of a thickness of the bead portion. a section width being equal to or less than 335 mm; an aspect ratio being equal to or less than 55%; a toroidal carcass extending between axially spaced bead portions through a tread portion and sidewall portions, wherein the carcass comprises a carcass ply comprising a main portion extending between bead cores each disposed in a respective one of the bead portions through the tread portion and the sidewall portions, and a turn-up portion turned up around each bead core of each bead portion from axially inside of the tire to outside of the tire and extending to a radially outer end thereof; a belt layer disposed radially outward of the carcass in the tread portion, wherein the radially outer end of the turn-up portion is located between the main portion and the belt layer in the tread portion; a sidewall rubber defining an outer sidewall profile of each sidewall portion; and a chafer rubber defining an outer bead profile of each bead portion, characterized in that in each bead portion, on a straight line that is perpendicular to the main portion of the carcass ply and passes a radially inner end of the sidewall rubber, the chafer rubber has a thickness of from 40% to 60% of a thickness of the bead portion.
Refrigeration circuit circulating a refrigerant and comprising in the direction of flow of the refrigerant: a compressor; at least one condenser (14, 16) for rejecting heat to ambient air; an expansion device; and an evaporator; the refrigeration circuit further comprising a collecting container, the output of which being connected to the expansion device; a heat rejecting heat exchanger for heat exchange of the refrigerant to a heat pump system; and means (V1, V2) for connecting the heat rejecting heat exchanger or at least one of the condenser(s) (14, 16) to the output of the compressor depending on the availability of cooling power at the heat rejecting heat exchanger; characterized in that the refrigeration circuit further comprises a gas-liquid-separator for separating the refrigerant coming from the heat rejecting heat exchanger into a gaseous phase refrigerant portion and liquid phase refrigerant portion, the gas-liquid-separator having an inlet line fluidly connected to the heat rejecting heat exchanger, a gaseous refrigerant output line fluidly connected to the at least one condenser (14, 16), and a liquid refrigerant output line fluidly connected to the collecting container. a compressor; at least one condenser (14, 16) for rejecting heat to ambient air; an expansion device; and an evaporator; the refrigeration circuit further comprising a collecting container, the output of which being connected to the expansion device; a heat rejecting heat exchanger for heat exchange of the refrigerant to a heat pump system; and means (V1, V2) for connecting the heat rejecting heat exchanger or at least one of the condenser(s) (14, 16) to the output of the compressor depending on the availability of cooling power at the heat rejecting heat exchanger; characterized in that the refrigeration circuit further comprises a gas-liquid-separator for separating the refrigerant coming from the heat rejecting heat exchanger into a gaseous phase refrigerant portion and liquid phase refrigerant portion, the gas-liquid-separator having an inlet line fluidly connected to the heat rejecting heat exchanger, a gaseous refrigerant output line fluidly connected to the at least one condenser (14, 16), and a liquid refrigerant output line fluidly connected to the collecting container.
A hair straightener for performing a grooming task on a user, comprising a grooming element, which is provided with a grooming surface and a first and a second sensor, said first and second sensors are each provided with a sensor housing, each of said sensor housings is provided with a sensor contact surface, wherein each of said sensor contact surfaces is adjacent to and at level with and/or with step free transition with the grooming surface, each of said sensor housings (20, 20A) being both integral with the grooming surface and situated at two opposing sides of the grooming surface, wherein the sensor contact surface and the grooming surface are integral such that both surfaces are provided from one piece of material and form one larger surface of that piece of material and wherein the sensor housing comprises a contact plate and the contact plate comprises a front surface and a rear surface and the front surface provides the sensor contact surface.
An ultrasound system comprising a transducer, a controller arranged to generate control signals arranged to control the transducer to generate pressure waves directed at a target volume, and sensing means comprising at least one passive pressure wave detector arranged to detect pressure waves generated by inertial cavitation in the target volume, wherein the controller is arranged to: receive sensing signals from the sensing means; riieasure from the sensing signals the position of the cavitation, variations in the amount of the cavitation, and variations in the type of the cavitation; define at least one parameter of the sensing signals, and a target range of the or each parameter; and change the control signals in response to the parameter, or one of the parameters, being outside its target range thereby to control the position, amount and type of the cavitation. receive sensing signals from the sensing means; riieasure from the sensing signals the position of the cavitation, variations in the amount of the cavitation, and variations in the type of the cavitation; define at least one parameter of the sensing signals, and a target range of the or each parameter; and change the control signals in response to the parameter, or one of the parameters, being outside its target range thereby to control the position, amount and type of the cavitation.
A data sending method, wherein the method comprises: receiving (S101, S401), by a network device, first indication information and a resource request message that are sent by user equipment UE, wherein the first indication information is used to inform the network device that the UE is capable of sending data to multiple destination addresses in one resource scheduling period by using multiple time frequency resources; the resource request message is used to indicate, to the network device, the multiple destination addresses respectively corresponding to multiple pieces of first to-be-sent data of the UE and a data volume of each piece of first to-be-sent data; and each piece of first to-be-sent data comprises one piece of second to-be-sent data; and allocating (S102, S402) and sending, by the network device to the UE according to the first indication information, the resource request message and a preset mapping relationship between multiple pieces of schedule time and the multiple destination addresses, time frequency resources used by the UE to send multiple pieces of second to-be-sent data in the resource scheduling period. receiving (S101, S401), by a network device, first indication information and a resource request message that are sent by user equipment UE, wherein the first indication information is used to inform the network device that the UE is capable of sending data to multiple destination addresses in one resource scheduling period by using multiple time frequency resources; the resource request message is used to indicate, to the network device, the multiple destination addresses respectively corresponding to multiple pieces of first to-be-sent data of the UE and a data volume of each piece of first to-be-sent data; and each piece of first to-be-sent data comprises one piece of second to-be-sent data; and allocating (S102, S402) and sending, by the network device to the UE according to the first indication information, the resource request message and a preset mapping relationship between multiple pieces of schedule time and the multiple destination addresses, time frequency resources used by the UE to send multiple pieces of second to-be-sent data in the resource scheduling period.
A frame for an input and output device, the frame being composed of a plurality of individual frame parts (2a, 2b, 2c, 2d), the frame parts (2a, 2b, 2c, 2d) being joined at abutting abutment surfaces of the frame parts (2a, 2b, 2c, 2d) in order to form the frame, characterized in that in the region of an abutment surface, a through recess is arranged which is connected to the abutment surface and connects a first end face of the frame to an opposite second end face of the frame, the through recess being filled in with a sealant.
A device for monitoring production of a technical apparatus comprising a plurality of components (501, 502, 511, 512, 515, 516, 521, 522, 523), the device comprising a control circuitry configured to: - for each one of a plurality of production steps of a first component (501, 502, 511, 512, 515, 516, 521, 522, 523) of the plurality of components (501, 502, 511, 512, 515, 516, 521, 522, 523): trigger deposition of a respective entry in a first distributed ledger associated with the first component (501, 502, 511, 512, 515, 516, 521, 522, 523), the respective entry being associated with the respective production step, and - upon integration of the first component (501, 502, 511, 512, 515, 516, 521, 522, 523) in a second component (501, 502, 511, 512, 515, 516, 521, 522, 523) of the plurality of components (501, 502, 511, 512, 515, 516, 521, 522, 523): trigger encapsulation of the first distributed ledger in a second distributed ledger associated with the second component (501, 502, 511, 512, 515, 516, 521, 522, 523), wherein the first distributed ledger is a first blockchain comprising multiple first blocks, wherein the second distributed ledger is a second blockchain comprising multiple second blocks. - for each one of a plurality of production steps of a first component (501, 502, 511, 512, 515, 516, 521, 522, 523) of the plurality of components (501, 502, 511, 512, 515, 516, 521, 522, 523): trigger deposition of a respective entry in a first distributed ledger associated with the first component (501, 502, 511, 512, 515, 516, 521, 522, 523), the respective entry being associated with the respective production step, and - upon integration of the first component (501, 502, 511, 512, 515, 516, 521, 522, 523) in a second component (501, 502, 511, 512, 515, 516, 521, 522, 523) of the plurality of components (501, 502, 511, 512, 515, 516, 521, 522, 523): trigger encapsulation of the first distributed ledger in a second distributed ledger associated with the second component (501, 502, 511, 512, 515, 516, 521, 522, 523),
A method for upgrading a device through multicast, wherein the device includes multiple systems or modules, and the method comprises: the device monitors a common channel of a multicast server, wherein information about all subfiles of a current packaged mirror file is multicast in the common channel by the multicast server; the device obtains information about subfiles required for upgrading the multiple systems or modules of the device from packets in the common channel, wherein the information comprises addresses and ports of subchannels that bear the subfiles on the multicast server; and the device switches to the subchannels according to the addresses of the subchannels that bear the subfiles required for upgrade, receives the subfile multicast in the subchannel, and validates the subfile. the device monitors a common channel of a multicast server, wherein information about all subfiles of a current packaged mirror file is multicast in the common channel by the multicast server; the device obtains information about subfiles required for upgrading the multiple systems or modules of the device from packets in the common channel, wherein the information comprises addresses and ports of subchannels that bear the subfiles on the multicast server; and the device switches to the subchannels according to the addresses of the subchannels that bear the subfiles required for upgrade, receives the subfile multicast in the subchannel, and validates the subfile.
A method for transmitting and receiving a signal by a user equipment, UE, including a plurality of radio frequency, RF, modules and a plurality of antenna modules in a wireless communication system, the method comprising: transmitting, to a base station, BS, of a serving cell, channel quality indicator, CQI, information for scheduling during a measurement interval for measuring quality of one or more neighboring cells; performing communication with the BS using a first antenna module among the plural antenna modules; measuring the quality of the one or more neighboring cells using a second antenna module among the plural antenna modules during the measurement interval; and reporting, to the BS, a result of the measurement, wherein transmitting of the CQI information comprises: receiving, from the BS, configuration information about two CQI processes including a first CQI process and a second CQI process; and measuring channel quality for each of the two CQI processes, wherein the first CQI process is configured to measure channel quality when all the plural antenna modules are used to communicate with the serving cell and the second CQI process is configured to measure channel quality when partial antenna modules among the plural antenna modules are used to communicate with the serving cell. transmitting, to a base station, BS, of a serving cell, channel quality indicator, CQI, information for scheduling during a measurement interval for measuring quality of one or more neighboring cells; performing communication with the BS using a first antenna module among the plural antenna modules; measuring the quality of the one or more neighboring cells using a second antenna module among the plural antenna modules during the measurement interval; and reporting, to the BS, a result of the measurement, wherein transmitting of the CQI information comprises: receiving, from the BS, configuration information about two CQI processes including a first CQI process and a second CQI process; and measuring channel quality for each of the two CQI processes, wherein the first CQI process is configured to measure channel quality when all the plural antenna modules are used to communicate with the serving cell and the second CQI process is configured to measure channel quality when partial antenna modules among the plural antenna modules are used to communicate with the serving cell. receiving, from the BS, configuration information about two CQI processes including a first CQI process and a second CQI process; and measuring channel quality for each of the two CQI processes, wherein the first CQI process is configured to measure channel quality when all the plural antenna modules are used to communicate with the serving cell and the second CQI process is configured to measure channel quality when partial antenna modules among the plural antenna modules are used to communicate with the serving cell.
A computer implemented method for placement of a wireless network access point, comprising: determining a location of any existing wireless network access points (102-1,..., 102-5) of a wireless location system in an area; said method characterized in that it further comprises: computing a Voronoi partition around the locations of the existing wireless network access points (102-1,..., 102-5) in the area, wherein the Voronoi partition includes a number of vertices (110-1,..., 110-4) defined by the locations of the existing wireless network access points (102-1,..., 102-5); and determining a location to place an additional wireless network access point in the area based on the Voronoi partition, wherein the location corresponds to the vertex in the Voronoi partition that: is farthest from its defining locations and in the area; and has a worst location accuracy as compared to a location accuracy threshold, wherein the location accuracy is the accuracy in determining the location of a mobile device in the area by the wireless location system. determining a location of any existing wireless network access points (102-1,..., 102-5) of a wireless location system in an area; computing a Voronoi partition around the locations of the existing wireless network access points (102-1,..., 102-5) in the area, wherein the Voronoi partition includes a number of vertices (110-1,..., 110-4) defined by the locations of the existing wireless network access points (102-1,..., 102-5); and determining a location to place an additional wireless network access point in the area based on the Voronoi partition, wherein the location corresponds to the vertex in the Voronoi partition that: is farthest from its defining locations and in the area; and has a worst location accuracy as compared to a location accuracy threshold, wherein the location accuracy is the accuracy in determining the location of a mobile device in the area by the wireless location system. is farthest from its defining locations and in the area; and has a worst location accuracy as compared to a location accuracy threshold, wherein the location accuracy is the accuracy in determining the location of a mobile device in the area by the wireless location system.