mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal , comprising: a memory configured to store a plurality of applications; a touch screen configured to display a home screen including the plurality of applications; and a controller configured to control an operation associated with the plurality of applications, characterized in that the controller is further configured to: when a long-touch input is applied to a first application within the home screen , search the memory for a second application within the home screen , wherein the second application shares at least one common feature with the first application and the at least one common feature is a same type of functions to be performed on the terminal, control the touchscreen to display the second application in a manner different from other applications within the home screen in display style in order to identify a position of the second application while the long-touch input is maintained at the first application , and when the long-touch input to the first application is cancelled, control the touchscreen to change the display style of the second application to an initial display style of the second application . a memory configured to store a plurality of applications; a touch screen configured to display a home screen including the plurality of applications; and a controller configured to control an operation associated with the plurality of applications, characterized in that the controller is further configured to: when a long-touch input is applied to a first application within the home screen , search the memory for a second application within the home screen , wherein the second application shares at least one common feature with the first application and the at least one common feature is a same type of functions to be performed on the terminal, control the touchscreen to display the second application in a manner different from other applications within the home screen in display style in order to identify a position of the second application while the long-touch input is maintained at the first application , and when the long-touch input to the first application is cancelled, control the touchscreen to change the display style of the second application to an initial display style of the second application . when a long-touch input is applied to a first application within the home screen , search the memory for a second application within the home screen , wherein the second application shares at least one common feature with the first application and the at least one common feature is a same type of functions to be performed on the terminal, control the touchscreen to display the second application in a manner different from other applications within the home screen in display style in order to identify a position of the second application while the long-touch input is maintained at the first application , and when the long-touch input to the first application is cancelled, control the touchscreen to change the display style of the second application to an initial display style of the second application .
A cooling structure, comprising: a substrate having: a plurality of microwave transmission lines disposed on an upper surface of the substrate ; and an opening passing through the substrate ; a cold plate having a cavity formed in an upper surface of the cold plate , the upper surface being thermally coupled to a bottom surface of the substrate; a heat spreader comprising thermally anisotropic material, such material having anisotropic heat conducting properties for conducting heat therethrough along a preferred plane, the heat spreader having a lower portion passing through the opening onto a bottom surface of the cavity, the; and, a circuit , disposed on an upper portion of the heat spreader, the circuit comprising a plurality of heat generating electrical components disposed on different ones of a first portion of a plurality of surfaces of the heat spreader and interconnected by microwave transmission lines disposed on a second portion of the plurality of surfaces of the heat spreader , the preferred plane intersecting the first portion of a plurality of surfaces of the heat spreader . a substrate having: a plurality of microwave transmission lines disposed on an upper surface of the substrate ; and an opening passing through the substrate ; a cold plate having a cavity formed in an upper surface of the cold plate , the upper surface being thermally coupled to a bottom surface of the substrate; a heat spreader comprising thermally anisotropic material, such material having anisotropic heat conducting properties for conducting heat therethrough along a preferred plane, the heat spreader having a lower portion passing through the opening onto a bottom surface of the cavity, the; and, a circuit , disposed on an upper portion of the heat spreader, the circuit comprising a plurality of heat generating electrical components disposed on different ones of a first portion of a plurality of surfaces of the heat spreader and interconnected by microwave transmission lines disposed on a second portion of the plurality of surfaces of the heat spreader , the preferred plane intersecting the first portion of a plurality of surfaces of the heat spreader .
A method for performing, by a user equipment, UE, a beam-related reporting in a wireless communication system, the method comprising: receiving, from a base station , resource setting information, wherein the resource setting information includes a plurality of resource configurations for a plurality of channel state information-reference signal, CSI-RS, resources, with each resource configuration corresponding to each CSI-RS resource; wherein the plurality of CSI-RS resources comprise i) a non-zero power CSI-RS resource, ii) a zero power CSI-RS resource, and iii) a non-zero power CSI-RS resource for interference, wherein based on the plurality of CSI-RS resources being configured for a beam management, each of the plurality of resource configurations includes indication information for a subcarrier location of each CSI-RS resource, and wherein a resource configuration corresponding to the non-zero power CSI-RS resource for interference includes an indicator indicating that the non-zero power CSI-RS resource for interference is related to interference cancellation; receiving, from the base station , the plurality of CSI-RS resources based on the resource setting information, wherein the plurality of CSI-RS resources are repeatedly received via different reception, RX, beam candidates of the UE; and transmitting, to the base station , a beam-related report generated based on the plurality of CSI-RS resources. receiving, from a base station , resource setting information, wherein the resource setting information includes a plurality of resource configurations for a plurality of channel state information-reference signal, CSI-RS, resources, with each resource configuration corresponding to each CSI-RS resource; wherein the plurality of CSI-RS resources comprise i) a non-zero power CSI-RS resource, ii) a zero power CSI-RS resource, and iii) a non-zero power CSI-RS resource for interference, wherein based on the plurality of CSI-RS resources being configured for a beam management, each of the plurality of resource configurations includes indication information for a subcarrier location of each CSI-RS resource, and wherein a resource configuration corresponding to the non-zero power CSI-RS resource for interference includes an indicator indicating that the non-zero power CSI-RS resource for interference is related to interference cancellation; receiving, from the base station , the plurality of CSI-RS resources based on the resource setting information, wherein the plurality of CSI-RS resources are repeatedly received via different reception, RX, beam candidates of the UE; and transmitting, to the base station , a beam-related report generated based on the plurality of CSI-RS resources.
A cryocooler comprising: a pulse tube ; a regenerator ; and a compressor ; wherein the compressor includes a compressor piston axially-aligned with the pulse tube, wherein , during operation of the cryocooler, movement of the piston pushes a working fluid through the regenerator and the pulse tube; characterised in that the compressor piston is an annular piston having a central hole therethrough, further comprising a straight inertance tube segment , connected to the pulse tube and passing through the central hole , whereby the straight inertance tube segment is axially aligned with the compressor piston and the pulse tube . a pulse tube ; a regenerator ; and a compressor ; wherein the compressor includes a compressor piston axially-aligned with the pulse tube, wherein , during operation of the cryocooler, movement of the piston pushes a working fluid through the regenerator and the pulse tube; characterised in that the compressor piston is an annular piston having a central hole therethrough, further comprising a straight inertance tube segment , connected to the pulse tube and passing through the central hole , whereby the straight inertance tube segment is axially aligned with the compressor piston and the pulse tube .
A downconverter layer transfer device comprising: a release liner ; and a downconverter layer disposed on the release liner, the downconverter layer including a downconverter material dispersed throughout an adhesive, the downconverter layer being solid and non-adhesive at a first temperature, and adhesive at an elevated temperature above the first temperature, the downconverter layer comprising a first downconverter layer pixel and a second downconverter layer pixel , characterised in that the first and second downconverter layer pixels have different downconverter materials, are disposed on different areas of the release liner, are adjacent to each other, and meet at a junction . a release liner ; and a downconverter layer disposed on the release liner, the downconverter layer including a downconverter material dispersed throughout an adhesive, the downconverter layer being solid and non-adhesive at a first temperature, and adhesive at an elevated temperature above the first temperature, the downconverter layer comprising a first downconverter layer pixel and a second downconverter layer pixel , characterised in that the first and second downconverter layer pixels have different downconverter materials, are disposed on different areas of the release liner, are adjacent to each other, and meet at a junction .
An ear-worn electronic device adapted to be worn at, by, in or on an ear of a wearer, the device comprising: a housing configured to be supported at, by, in or on the wearer's ear ; a processor disposed in the housing; a speaker or a receiver coupled to the processor ; a radio frequency transceiver disposed in the housing and coupled to the processor ; and an antenna arrangement disposed in or on the housing and coupled to the transceiver , characterised in that : the antenna arrangement comprises a primary antenna and a chip antenna connected to the primary antenna , wherein the primary antenna is configured to serve as a counterpoise for the chip antenna and to feed the chip antenna . a housing configured to be supported at, by, in or on the wearer's ear ; a processor disposed in the housing; a speaker or a receiver coupled to the processor ; a radio frequency transceiver disposed in the housing and coupled to the processor ; and an antenna arrangement disposed in or on the housing and coupled to the transceiver , characterised in that : the antenna arrangement comprises a primary antenna and a chip antenna connected to the primary antenna , wherein the primary antenna is configured to serve as a counterpoise for the chip antenna and to feed the chip antenna .
A dual-card dual-active communication method, applied to a terminal that supports dual card dual active, wherein the terminal comprises a radio frequency circuit , and a first modem and a second modem that are separately coupled to the radio frequency circuit, the first modem comprises a first internet protocol multimedia subsystem, IMS, module , the second modem comprises a second IMS module , and the method comprises: sending , by the first IMS module, a first access request to a first gateway on a network side via the first modem and the radio frequency circuit, to request to access a first IMS network on the network side; receiving, by the first IMS module, a registration success response message and an authentication success response message that are for a first subscriber identity module from the network side; and when the first IMS module stably camps on the first IMS network via the first gateway, sending , by the second IMS module, a second access request to a second gateway on the network side via the first modem and the radio frequency circuit, to request to access a second IMS network on the network side; wherein a condition according to which the second IMS module determines that the first IMS module stably camps on the first IMS network via the first gateway includes: after receiving the registration success response message and the authentication success response message that are for the first subscriber identity module and that are sent by the network side, sending, by the first IMS module, acknowledgement information to the second IMS module. sending , by the first IMS module, a first access request to a first gateway on a network side via the first modem and the radio frequency circuit, to request to access a first IMS network on the network side; receiving, by the first IMS module, a registration success response message and an authentication success response message that are for a first subscriber identity module from the network side; and when the first IMS module stably camps on the first IMS network via the first gateway, sending , by the second IMS module, a second access request to a second gateway on the network side via the first modem and the radio frequency circuit, to request to access a second IMS network on the network side; wherein a condition according to which the second IMS module determines that the first IMS module stably camps on the first IMS network via the first gateway includes: after receiving the registration success response message and the authentication success response message that are for the first subscriber identity module and that are sent by the network side, sending, by the first IMS module, acknowledgement information to the second IMS module.
An information processing apparatus comprising: a memory configured to store a table which associates a command with an operating system ; and a controller configured to determine a destination operating system for a received command according to the table , wherein the table is configured to comprise at least first commands associated with a first operating system and second commands associated with a second operating system , the first operating system being incapable of adding or deleting an application and the second operating system being capable of adding an application in an application addition and of deleting an application in an application deletion; wherein the controller is configured to store an application to be newly added for the second operating system in the memory and to add a command of the application to be newly added to the table . a memory configured to store a table which associates a command with an operating system ; and a controller configured to determine a destination operating system for a received command according to the table , wherein the table is configured to comprise at least first commands associated with a first operating system and second commands associated with a second operating system , the first operating system being incapable of adding or deleting an application and the second operating system being capable of adding an application in an application addition and of deleting an application in an application deletion; wherein the controller is configured to store an application to be newly added for the second operating system in the memory and to add a command of the application to be newly added to the table .
A connector system comprising: a connector foil having contact pads thereon at an end portion , a connector fitting having a cylindrical element with a key formed at its distal end, said key being defined by cut-away portions of the element to produce two flat surfaces each parallel to the axis of the element , which flat surfaces face away from one another, wherein the end portion of the connector foil lies against a first one of said flat surfaces with the contact pads facing away from the first flat surface ; wherein a second one of said flat surfaces faces in the other direction and comprises itself a pair of flat surfaces which do not carry contacts, a socket unit with a tubular recess sized to accommodate the cylindrical element and having spring contacts positioned to engage the contact pads of the connector foil , the socket unit having a structure occupying the space vacated by said cutaway portions; wherein the structure occupying the space vacated by said cut-away portions comprises the spring contacts on one side of the key and a projection on the inside of the tubular recess on the other side of the key ., wherein the tubular recess has a cylindrical entry portion which merges with a generally D-shaped or half-circle step portion , wherein the spring contacts are positioned on the step portion for electrically coupled engagement with the contacts pads. a connector foil having contact pads thereon at an end portion , a connector fitting having a cylindrical element with a key formed at its distal end, said key being defined by cut-away portions of the element to produce two flat surfaces each parallel to the axis of the element , which flat surfaces face away from one another, wherein the end portion of the connector foil lies against a first one of said flat surfaces with the contact pads facing away from the first flat surface ; wherein a second one of said flat surfaces faces in the other direction and comprises itself a pair of flat surfaces which do not carry contacts, a socket unit with a tubular recess sized to accommodate the cylindrical element and having spring contacts positioned to engage the contact pads of the connector foil , the socket unit having a structure occupying the space vacated by said cutaway portions; wherein the structure occupying the space vacated by said cut-away portions comprises the spring contacts on one side of the key and a projection on the inside of the tubular recess on the other side of the key ., wherein the tubular recess has a cylindrical entry portion which merges with a generally D-shaped or half-circle step portion , wherein the spring contacts are positioned on the step portion for electrically coupled engagement with the contacts pads.
User equipment UE, wherein the UE comprises: a receiving unit , configured to receive a reference signal sent by a base station; a matrix selection unit , configured to receive the reference signal sent by the receiving unit , and select, based on the reference signal, a precoding matrix for each first subband of N first subbands in a system transmission bandwidth from a codebook, wherein the codebook comprises at least two precoding matrixes, and each precoding matrix is denoted by at least a first precoding matrix indicator PMI and a second PMI, wherein each first subband of the N first subbands corresponds to a second PMI, each second subband of M second subbands corresponds to a first PMI, the M second subbands including the N first subbands, and at least one second subband of the M second subbands comprises at least two first subbands of the N first subbands, wherein both N and M are positive integers not less than 2; and a sending unit , configured to: after the matrix selection unit has selected the precoding matrix for each first subband of the N first subbands, feed back the first PMI corresponding to each second subband of the M second subbands to the base station, and feed back the second PMI corresponding to each first subband of the N first subbands to the base station. a receiving unit , configured to receive a reference signal sent by a base station; a matrix selection unit , configured to receive the reference signal sent by the receiving unit , and select, based on the reference signal, a precoding matrix for each first subband of N first subbands in a system transmission bandwidth from a codebook, wherein the codebook comprises at least two precoding matrixes, and each precoding matrix is denoted by at least a first precoding matrix indicator PMI and a second PMI, wherein each first subband of the N first subbands corresponds to a second PMI, each second subband of M second subbands corresponds to a first PMI, the M second subbands including the N first subbands, and at least one second subband of the M second subbands comprises at least two first subbands of the N first subbands, wherein both N and M are positive integers not less than 2; and a sending unit , configured to: after the matrix selection unit has selected the precoding matrix for each first subband of the N first subbands, feed back the first PMI corresponding to each second subband of the M second subbands to the base station, and feed back the second PMI corresponding to each first subband of the N first subbands to the base station.
An electro-thermal system , comprising: a first antenna (118 ) for generating first electromagnetic signals; a second antenna (118 ) for receiving second electromagnetic signals; a vapor chamber to absorb heat from a heat source and to transfer the heat through a region that is positioned between the first antenna and the second antenna, wherein the region of the vapor chamber has a conductive material deposited thereon to form an electromagnetic shielding layer ; and an electronic circuit having a ground that is in electric contact with the electromagnetic shielding layer to reduce an amount that the first electromagnetic signals interfere with the second antenna receiving the second electromagnetic signals. a first antenna (118 ) for generating first electromagnetic signals; a second antenna (118 ) for receiving second electromagnetic signals; a vapor chamber to absorb heat from a heat source and to transfer the heat through a region that is positioned between the first antenna and the second antenna, wherein the region of the vapor chamber has a conductive material deposited thereon to form an electromagnetic shielding layer ; and an electronic circuit having a ground that is in electric contact with the electromagnetic shielding layer to reduce an amount that the first electromagnetic signals interfere with the second antenna receiving the second electromagnetic signals.