mhurhangee/patent-ind-claim-en huggingface dataset:
A radio frequency system for separating various frequency clusters comprising: a first radio frequency filter having a first input configured to be coupled to an antenna , the first radio frequency filter configured to provide a first bandpass response passing a first frequency band from the first input to a first bandpass output , and a first band stop response rejecting the first frequency band from the first input to a first band stop output ; an n-plexer having an input coupled to the first band stop output of the first radio frequency filter ; and a first tunable band stop filter coupled to an output of the n-plexer , characterized in the radio frequency system further comprises a second radio frequency filter having a second input coupled to the first band stop output of the first radio frequency filter , and a second band stop output coupled to the input of the n-plexer , the second radio frequency filter configured to provide a second bandpass response passing a second frequency band from the first input to a second bandpass output , and a second band stop response rejecting the second frequency band from the second input to the second band stop output . a first radio frequency filter having a first input configured to be coupled to an antenna , the first radio frequency filter configured to provide a first bandpass response passing a first frequency band from the first input to a first bandpass output , and a first band stop response rejecting the first frequency band from the first input to a first band stop output ; an n-plexer having an input coupled to the first band stop output of the first radio frequency filter ; and a first tunable band stop filter coupled to an output of the n-plexer , characterized in the radio frequency system further comprises a second radio frequency filter having a second input coupled to the first band stop output of the first radio frequency filter , and a second band stop output coupled to the input of the n-plexer , the second radio frequency filter configured to provide a second bandpass response passing a second frequency band from the first input to a second bandpass output , and a second band stop response rejecting the second frequency band from the second input to the second band stop output .
A download connector comprising a case, a substrate with a pin header coupled with one end of the substrate , and a header coupled with the other end of the substrate , wherein the case comprises: a fixed cover for fixing the substrate , configured to surround a part of the substrate and the periphery of the header and formed with a first through-hole through which the header is opened; a slide cover disposed on the outer side of the fixed cover, configured to surround the other part of the substrate and the periphery of the pin header and formed with a second through-hole through which the pin header is opened; and an opening and closing portion coupled with the slide cover to open and close the second through-hole , the slide cover being capable of sliding in a direction toward the header or the pin header , wherein the substrate has an insertion portion formed on a top portion, and an engaging portion, wherein the fixed cover comprises a first cover , disposed above the part of the substrate and the header and is provided with a fixing pin to be inserted into the insertion portion at a position corresponding to the insertion portion , and a second cover to be coupled with the first cover , wherein a second hook portion is formed on an inner bottom of the second cover to extend upward and is inserted in the engaging portion, so that the first cover and the second cover are fixed to the substrate forming the fixed cover, wherein the substrate connected with the pin header is fixed through the fixing pin and the second hook portion , and wherein the fixing pin is provided adjacent to the pin header . a fixed cover for fixing the substrate , configured to surround a part of the substrate and the periphery of the header and formed with a first through-hole through which the header is opened; a slide cover disposed on the outer side of the fixed cover, configured to surround the other part of the substrate and the periphery of the pin header and formed with a second through-hole through which the pin header is opened; and an opening and closing portion coupled with the slide cover to open and close the second through-hole , the slide cover being capable of sliding in a direction toward the header or the pin header , wherein the substrate has an insertion portion formed on a top portion, and an engaging portion, wherein the fixed cover comprises a first cover , disposed above the part of the substrate and the header and is provided with a fixing pin to be inserted into the insertion portion at a position corresponding to the insertion portion , and a second cover to be coupled with the first cover , wherein a second hook portion is formed on an inner bottom of the second cover to extend upward and is inserted in the engaging portion, so that the first cover and the second cover are fixed to the substrate forming the fixed cover, wherein the substrate connected with the pin header is fixed through the fixing pin and the second hook portion , and wherein the fixing pin is provided adjacent to the pin header .
A mechanism for mutually connecting a first and a second rotating member (A, B) having respective rotation axes (x A , x B ) parallel to and arranged at a fixed distance from each other, the mechanism comprising a support (W), a lever rotatably mounted on the support (W) and adapted to be rigidly connected to the first member (A), a gear wheel rotatably mounted on the support (W) and adapted to be rigidly connected to the second member (B), said gear wheel comprising a toothing and a follower portion protruding beyond the profile of the gear wheel , and a constraint pin (P) formed on the support (W) and located at a fixed distance from the rotation axes (x A , x B ) of the first and second rotating member (A, B), and a rack member connected to the lever by means of a linkage , the mechanism being characterized in that a groove is made in the rack member , said groove being coupled to the constraint pin (P) in a way such that the rack member is movable by constrained roto-translation along a curved trajectory between a first end position and a second end position, said rack member comprising a control profile adapted to be engaged by an end of the follower portion of the gear wheel in a first travel section of the rack member between the first end position and the second end position and released by the end of the follower portion of the gear wheel in a second travel section of the rack member between the first end position and the second end position, following or preceding the first travel section, and a toothing adapted to be engaged by the toothing of the gear wheel in the second travel section between the first end position and the second end position, wherein the control profile is configured in such a way to keep the gear wheel still when the gear wheel is in the first travel section of the rack member .
A method of wireless communication at a narrowband user equipment, UE , comprising: transmitting , to a wideband base station, BS , uplink transmissions in a plurality of transmission units during a frame structure , wherein the frame structure includes a downlink, DL, portion and an uplink, UL, portion comprising three transmission units and the frame structure includes a Listen-Before-Talk-, LBT-, portion at the beginning of the frame structure during which the wideband BS performs clear channel assessment, wherein the narrowband user equipment, UE , is configured to hop from a first set of narrowband frequency bands for a first channel occupancy to a second set of narrowband frequency bands for a second channel occupancy across frames according to a hopping pattern, and wherein the first set of narrowband frequency bands being different than the second set of narrowband frequency bands; and hopping sets of narrowband frequency bands in a first pattern across frames based on the hopping pattern. transmitting , to a wideband base station, BS , uplink transmissions in a plurality of transmission units during a frame structure , wherein the frame structure includes a downlink, DL, portion and an uplink, UL, portion comprising three transmission units and the frame structure includes a Listen-Before-Talk-, LBT-, portion at the beginning of the frame structure during which the wideband BS performs clear channel assessment, wherein the narrowband user equipment, UE , is configured to hop from a first set of narrowband frequency bands for a first channel occupancy to a second set of narrowband frequency bands for a second channel occupancy across frames according to a hopping pattern, and wherein the first set of narrowband frequency bands being different than the second set of narrowband frequency bands; and hopping sets of narrowband frequency bands in a first pattern across frames based on the hopping pattern.
A method for enriching a population of cells for human or mouse pluripotent cells, the method comprising culturing a population of cells comprising human or mouse pluripotent cells in a medium substantially free of glutamine; wherein the medium comprises a cell permeable alpha-ketoglutarate (αKG) or αKG analog; and wherein the medium further comprises a mitogen activated protein kinase (MAPK) inhibitor and/or a glycogen synthase kinase 3β (GSK3β) inhibitor.
A transmit apparatus for a directional listen-before-talk, LBT, operation in a wireless communication system, the transmit apparatus comprising: a transceiver; and a processor coupled with the transceiver, configured to: perform, using a plurality of sensing beams, a Type B sensing of a channel during an interval comprising a defer duration and one or more additional clear channel assessment, CCA, slots before a start of a channel occupancy, perform a Type A sensing of the channel based on the at least one beam for which the Type B sensing using the plurality of sensing beams is completed; wherein each of the at least one beam corresponds to each of at least one transmission beam within the channel occupancy, wherein the Type A sensing is performed using each of the at least one beam, respectively, and wherein transmission using each of the at least one transmission beam within the channel occupancy is performed after the channel is sensed to be idle according to the Type A sensing corresponding to each of the at least one beam. a transceiver; and a processor coupled with the transceiver, configured to: perform, using a plurality of sensing beams, a Type B sensing of a channel during an interval comprising a defer duration and one or more additional clear channel assessment, CCA, slots before a start of a channel occupancy, perform a Type A sensing of the channel based on the at least one beam for which the Type B sensing using the plurality of sensing beams is completed; wherein each of the at least one beam corresponds to each of at least one transmission beam within the channel occupancy, wherein the Type A sensing is performed using each of the at least one beam, respectively, and wherein transmission using each of the at least one transmission beam within the channel occupancy is performed after the channel is sensed to be idle according to the Type A sensing corresponding to each of the at least one beam. perform, using a plurality of sensing beams, a Type B sensing of a channel during an interval comprising a defer duration and one or more additional clear channel assessment, CCA, slots before a start of a channel occupancy, perform a Type A sensing of the channel based on the at least one beam for which the Type B sensing using the plurality of sensing beams is completed; wherein each of the at least one beam corresponds to each of at least one transmission beam within the channel occupancy, wherein the Type A sensing is performed using each of the at least one beam, respectively, and wherein transmission using each of the at least one transmission beam within the channel occupancy is performed after the channel is sensed to be idle according to the Type A sensing corresponding to each of the at least one beam.
A compound of formula (I) for use in a method for in vivo imaging histone deacetylase in a brain and/or a peripheral organ of a subject, wherein: in the compound of formula (I): R 1 is a moiety including a substituted or unsubstituted adamantyl group, at least one atom in R 1 is replaced with a positron emitter selected from the group consisting of 11 C, 13 N, 150, 18 F, 34m Cl, 38 K, 45 Ti, 51 Mn, 52m Mn, 52 Fe, 55 Co, 60 Cu, 61 Cu, 62 Cu, 64 Cu, 66 Ga, 68 Ga, 71 As, 72 As, 74 As, 75 Br, 76 Br, 82 Rb, 86 Y, 89 Zr, 90 Nb, 94m Tc, 110m In, 118 Sb, 120 I, 121 I, 122 I, and 124 I, R 2 represents hydrogen, or substituted or unsubstituted alkyl, or substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, or substituted or unsubstituted heterocyclic; and n is 1, and wherein R 1 is selected from the group consisting of in the compound of formula (I): R 1 is a moiety including a substituted or unsubstituted adamantyl group, at least one atom in R 1 is replaced with a positron emitter selected from the group consisting of 11 C, 13 N, 150, 18 F, 34m Cl, 38 K, 45 Ti, 51 Mn, 52m Mn, 52 Fe, 55 Co, 60 Cu, 61 Cu, 62 Cu, 64 Cu, 66 Ga, 68 Ga, 71 As, 72 As, 74 As, 75 Br, 76 Br, 82 Rb, 86 Y, 89 Zr, 90 Nb, 94m Tc, 110m In, 118 Sb, 120 I, 121 I, 122 I, and 124 I, R 2 represents hydrogen, or substituted or unsubstituted alkyl, or substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, or substituted or unsubstituted heterocyclic; and n is 1, and R 1 is a moiety including a substituted or unsubstituted adamantyl group, at least one atom in R 1 is replaced with a positron emitter selected from the group consisting of 11 C, 13 N, 150, 18 F, 34m Cl, 38 K, 45 Ti, 51 Mn, 52m Mn, 52 Fe, 55 Co, 60 Cu, 61 Cu, 62 Cu, 64 Cu, 66 Ga, 68 Ga, 71 As, 72 As, 74 As, 75 Br, 76 Br, 82 Rb, 86 Y, 89 Zr, 90 Nb, 94m Tc, 110m In, 118 Sb, 120 I, 121 I, 122 I, and 124 I, R 2 represents hydrogen, or substituted or unsubstituted alkyl, or substituted or unsubstituted aryl, substituted or unsubstituted heteroaryl, or substituted or unsubstituted heterocyclic; and n is 1, and wherein R 1 is selected from the group consisting of
A method for assessing a thermal path associated with an integrated circuit configured to be connected to a power source , the method comprising: in response to identifying that a heat application mode based on a design type of the integrated circuit is that of a current limit mode : measuring a first temperature of at least one thermal sensing device associated with the integrated circuit ; applying heat to at least a portion of the integrated circuit according to the heat application mode; measuring a second temperature of the at least one thermal sensing device associated with the integrated circuit ; determining a difference between the first temperature and the second temperature; and determining whether a thermal path between the integrated circuit and an associated substrate is sufficient based on a comparison of the difference between the first temperature and the second temperature with a predetermined difference between an initial temperature and a subsequent temperature of the at least one thermal sensing device and, wherein the integrated circuit includes a FET and the thermal sensing device connected to a resistor on a low side of the FET and the thermal sensing device and connected to the power source on a high side of the FET and the thermal sensing device , the resistor being disposed on a PCB external from the integrated circuit and connected to ground on a side of the resistor opposite the FET and the thermal sensing device . measuring a first temperature of at least one thermal sensing device associated with the integrated circuit ; applying heat to at least a portion of the integrated circuit according to the heat application mode; measuring a second temperature of the at least one thermal sensing device associated with the integrated circuit ; determining a difference between the first temperature and the second temperature; and determining whether a thermal path between the integrated circuit and an associated substrate is sufficient based on a comparison of the difference between the first temperature and the second temperature with a predetermined difference between an initial temperature and a subsequent temperature of the at least one thermal sensing device and, wherein the integrated circuit includes a FET and the thermal sensing device connected to a resistor on a low side of the FET and the thermal sensing device and connected to the power source on a high side of the FET and the thermal sensing device , the resistor being disposed on a PCB external from the integrated circuit and connected to ground on a side of the resistor opposite the FET and the thermal sensing device .
Method for obtaining, by means of a mobile terminal of a user, at least one security token intended to be used for an electronic transaction, this method comprising: - a step (E30-E50) of identifying the user of the mobile terminal; - a step, initiated if the user is identified successfully, of generating (E70), by means of a secure element of the mobile terminal, at least one identification value of the mobile terminal by using a first secret key shared between the secure element and a token-provisioning device; - a step of sending (E100), to the token-provisioning device, a request to obtain at least one security token intended to be used by the mobile terminal for an electronic transaction, this request comprising said at least one identification value of the mobile terminal; and - a step of receiving (F90), from the token-provisioning device, said at least one security token in encrypted form, each security token being associated with a random number generated by the token-provisioning device and encrypted by means of an encryption key generated for this security token from the random number and a second secret key shared between the token-provisioning device and the secure element of the mobile terminal. - a step (E30-E50) of identifying the user of the mobile terminal; - a step, initiated if the user is identified successfully, of generating (E70), by means of a secure element of the mobile terminal, at least one identification value of the mobile terminal by using a first secret key shared between the secure element and a token-provisioning device; - a step of sending (E100), to the token-provisioning device, a request to obtain at least one security token intended to be used by the mobile terminal for an electronic transaction, this request comprising said at least one identification value of the mobile terminal; and - a step of receiving (F90), from the token-provisioning device, said at least one security token in encrypted form, each security token being associated with a random number generated by the token-provisioning device and encrypted by means of an encryption key generated for this security token from the random number and a second secret key shared between the token-provisioning device and the secure element of the mobile terminal.
A monitoring system , comprising: an analytical engine system coupled to a sensor of an engine system , wherein the analytical engine system is configured to: receive data corresponding to operation of the engine system, wherein the received data comprises a monitored lubricant temperature of a bearing and operating parameters of the engine system; determine a distance metric corresponding to the operating parameters of the engine system, wherein the distance metric is based at least in part on the monitored lubricant temperature relative to a lubricant temperature statistical model, wherein the lubricant temperature statistical model is based at least in part on the operating parameters of the engine system; compare the distance metric for the monitored lubricant temperature to a model threshold; and generate a lubricant alert signal when the distance metric for the monitored lubricant temperature is greater than the model threshold, wherein the analytical engine system is configured to filter the received data based at least in part on whether the received data corresponds to a steady state operation of the engine system, wherein steady state operation of the engine system is based at least in part on the operating parameters of the engine system . receive data corresponding to operation of the engine system, wherein the received data comprises a monitored lubricant temperature of a bearing and operating parameters of the engine system; determine a distance metric corresponding to the operating parameters of the engine system, wherein the distance metric is based at least in part on the monitored lubricant temperature relative to a lubricant temperature statistical model, wherein the lubricant temperature statistical model is based at least in part on the operating parameters of the engine system; compare the distance metric for the monitored lubricant temperature to a model threshold; and generate a lubricant alert signal when the distance metric for the monitored lubricant temperature is greater than the model threshold, wherein the analytical engine system is configured to filter the received data based at least in part on whether the received data corresponds to a steady state operation of the engine system, wherein steady state operation of the engine system is based at least in part on the operating parameters of the engine system .
Method for determining wind direction by means of a lidar sensor placed on a wind turbine , wherein the following steps are implemented: a) carrying out wind measurements (MES) by means of said lidar sensor in at least one measurement plane (PM) upstream of said wind turbine, said measurement plane (PM) being perpendicular to the measurement direction (x) of said lidar sensor ; b) determining a Gaussian distribution of the longitudinal (u) and transverse (v) wind-speed components by means of said measurements, said longitudinal component (u) corresponding to the measurement direction of the lidar sensor , and said transverse component (v) corresponding to a direction (y) perpendicular to the measurement direction of the lidar sensor ; and c) determining said wind direction (θ) in real time, by means of said determined Gaussian distribution of said longitudinal (u) and transverse (v) wind-speed components, using a method of spherical cubature approximation (SCA). a) carrying out wind measurements (MES) by means of said lidar sensor in at least one measurement plane (PM) upstream of said wind turbine, said measurement plane (PM) being perpendicular to the measurement direction (x) of said lidar sensor ; b) determining a Gaussian distribution of the longitudinal (u) and transverse (v) wind-speed components by means of said measurements, said longitudinal component (u) corresponding to the measurement direction of the lidar sensor , and said transverse component (v) corresponding to a direction (y) perpendicular to the measurement direction of the lidar sensor ; and c) determining said wind direction (θ) in real time, by means of said determined Gaussian distribution of said longitudinal (u) and transverse (v) wind-speed components, using a method of spherical cubature approximation (SCA).