mhurhangee/patent-ind-claim-en huggingface dataset:
A suspension lug arrangement for a store suitable for aerial deployment, the store having an outer surface, the suspension lug arrangement comprising: at least one lug region comprising a lug configured to be disposed in a body of the store, the lug comprising: a base portion configured to be embedded within and configured to be joined to the body of the store; and a head portion configured to extend outward from the base portion to the outer surface of the store, the head portion comprising an outer surface configured to be aligned with an adjacent portion of the outer surface of the body; the suspension lug arrangement further comprising: a well at least partially surrounding the lug; a compressible member disposed within the well; and a plug retained within the well and engaging the compressible member disposed therein, wherein the plug comprises: a seat for engaging an inner surface of the head of the lug; a recess for engaging the compressible member; and a peripheral surface slidable along a wall of the well. the lug comprising: a base portion configured to be embedded within and configured to be joined to the body of the store; and a head portion configured to extend outward from the base portion to the outer surface of the store, the head portion comprising an outer surface configured to be aligned with an adjacent portion of the outer surface of the body; a base portion configured to be embedded within and configured to be joined to the body of the store; and a head portion configured to extend outward from the base portion to the outer surface of the store, the head portion comprising an outer surface configured to be aligned with an adjacent portion of the outer surface of the body; the suspension lug arrangement further comprising: a well at least partially surrounding the lug; a compressible member disposed within the well; and a plug retained within the well and engaging the compressible member disposed therein, wherein the plug comprises: a seat for engaging an inner surface of the head of the lug; a recess for engaging the compressible member; and a peripheral surface slidable along a wall of the well. a well at least partially surrounding the lug; a compressible member disposed within the well; and a plug retained within the well and engaging the compressible member disposed therein, wherein the plug comprises: a seat for engaging an inner surface of the head of the lug; a recess for engaging the compressible member; and a peripheral surface slidable along a wall of the well. a seat for engaging an inner surface of the head of the lug; a recess for engaging the compressible member; and a peripheral surface slidable along a wall of the well.
Chair of a chairlift, comprising a safety device for passengers, the safety device comprising a main safety bar mounted pivoting on the chair between a raised position (R1) in which an access to the chair is allowed and a lowered position (B1) to enable a protection to the passengers seated on the chair, and at least one secondary safety bar mounted pivoting on the chair between a raised position (R2) in which an access to the chair is allowed and a lowered position (B2) to enable a protection to at least one passenger seated on the chair, characterized in that each secondary safety bar comprises a locking means configured so as to prevent the secondary safety bar from pivoting into its raised position (R2) when the main safety bar is in its lowered position (B1).
A source base station comprising: a processing circuitry configured to generate a user equipment packet duplication status, which includes information on the status of uplink packet duplication performed by a user equipment with the source base station and at least one source secondary base station, wherein the information on the status of uplink packet duplication is per uplink radio bearer, one or more uplink radio bearers being established between the user equipment and the source base station, a transmitter configured to transmit the user equipment packet duplication status to a target base station which is the target of a handover from the source base station performed for the user equipment. a processing circuitry configured to generate a user equipment packet duplication status, which includes information on the status of uplink packet duplication performed by a user equipment with the source base station and at least one source secondary base station, wherein the information on the status of uplink packet duplication is per uplink radio bearer, one or more uplink radio bearers being established between the user equipment and the source base station, a transmitter configured to transmit the user equipment packet duplication status to a target base station which is the target of a handover from the source base station performed for the user equipment.
Protective module for the protection of objects against shaped-charge projectiles, consisting of a number of plates (P 1 to P n ) provided one after the other and/or one on top of the other for forming distributed or multiple capacitances (C 1 to C n ), characterized in that the protective module is made up of multiple protective sub-modules and is divided into various protective regions , wherein the protective sub-modules are electrically connected to one another, and in that each of the capacitances (C 1 to C n ) is charged to a charging voltage (U 0 ).
A solid state lamp (300; 320; 340; 370; 390; 410; 420; 620; 650), comprising: a light emitting diode (LED) based light source (304; 324; 344; 376; 392; 426); a remote wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) spaced from said LED light source (304; 324; 344; 376; 392; 426); a diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652) remote to said remote wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) wherein said diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652) comprises a geometry and light scattering properties to disperse the light from said LED light source (304; 324; 344; 376; 392; 426) and wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) to a substantially omnidirectional emission pattern, and wherein said remote wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) comprises a carrier layer and a phosphor layer, said remote wavelength conversion material carrier at the base of said diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652), wherein said remote wavelength conversion material carrier (308; 328; 348; 428) comprises a substantially planar shape, characterized in that said diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652) geometry comprises a neck (102; 622) at its base and in that said light scattering properties comprise non-uniform light scattering properties by a non-uniform diffuser distribution across the surface. a light emitting diode (LED) based light source (304; 324; 344; 376; 392; 426); a remote wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) spaced from said LED light source (304; 324; 344; 376; 392; 426); a diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652) remote to said remote wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) wherein said diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652) comprises a geometry and light scattering properties to disperse the light from said LED light source (304; 324; 344; 376; 392; 426) and wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) to a substantially omnidirectional emission pattern, and wherein said remote wavelength conversion material carrier (91; 308; 328; 348; 366; 382; 396; 412; 428) comprises a carrier layer and a phosphor layer, said remote wavelength conversion material carrier at the base of said diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652), wherein said remote wavelength conversion material carrier (308; 328; 348; 428) comprises a substantially planar shape, characterized in that said diffuser (90; 100; 130; 140; 310; 330; 350; 378; 398; 400; 430; 621; 652) geometry comprises a neck (102; 622) at its base and in that said light scattering properties comprise non-uniform light scattering properties by a non-uniform diffuser distribution across the surface.
A surgical hub, comprising: a processor; and a memory coupled to the processor, the memory storing instructions executable by the processor to: receive first image data from an image sensor, wherein the first image data represents a first field of view; receive second image data from the image sensor, wherein the second image data represents a second field of view receive status information associated with a surgical device, wherein the status information is indicative of one of more of: force-to-fire, force-to-close, firing progress, tissue gap, power level, impedance, tissue compression stability, number of staple rows, distance traversed by a knife along a length of a staple cartridge, clamp stabilization, and clamp time; and display, on a display coupled to the processor, a first image rendered from the first image data corresponding to the first field of view, a second image rendered from the second image data corresponding to the second field of view, and the status information associated with the surgical device. receive first image data from an image sensor, wherein the first image data represents a first field of view; receive second image data from the image sensor, wherein the second image data represents a second field of view receive status information associated with a surgical device, wherein the status information is indicative of one of more of: force-to-fire, force-to-close, firing progress, tissue gap, power level, impedance, tissue compression stability, number of staple rows, distance traversed by a knife along a length of a staple cartridge, clamp stabilization, and clamp time; and display, on a display coupled to the processor, a first image rendered from the first image data corresponding to the first field of view, a second image rendered from the second image data corresponding to the second field of view, and the status information associated with the surgical device.
A sensor arrangement to sense an external signal, comprising: - a sensor to provide a sensor current (Is) in dependence from the external signal, - a charge generator to generate a compensation current (Ic) to compensate the sensor current, - an output node (O200) of the charge generator to provide the compensation current (Ic), wherein the sensor is coupled to the output node (O200) of the charge generator to provide the sensor current of the sensor at the output node (O200) of the charge generator , - a reference voltage line to provide a reference voltage (Vref), - a control circuit to control the generation of the compensation current (Ic), - wherein the charge generator comprises a first transistor having a parasitic capacitor and a first conductive path, the first transistor being connected to the reference voltage line , - wherein the charge generator comprises a second transistor having a second conductive path being coupled in series to the first transistor and coupled to the output node (O200) of the charge generator , - wherein the charge generator is configured such that the parasitic capacitor of the first transistor is used as a storage element to store a compensation charge portion for generating the compensation current (Ic), and the charge generator does not comprise a capacitor configured as a concrete device for purposes of compensation charge storing, - wherein the control circuit is configured to control the conductivity of the respective first and second conductive path of the first and the second transistor of the charge generator so that the sensor current is compensated by the compensation current (Ic) . - a sensor to provide a sensor current (Is) in dependence from the external signal, - a charge generator to generate a compensation current (Ic) to compensate the sensor current, - an output node (O200) of the charge generator to provide the compensation current (Ic), wherein the sensor is coupled to the output node (O200) of the charge generator to provide the sensor current of the sensor at the output node (O200) of the charge generator , - a reference voltage line to provide a reference voltage (Vref), - a control circuit to control the generation of the compensation current (Ic), - wherein the charge generator comprises a first transistor having a parasitic capacitor and a first conductive path, the first transistor being connected to the reference voltage line , - wherein the charge generator comprises a second transistor having a second conductive path being coupled in series to the first transistor and coupled to the output node (O200) of the charge generator , - wherein the charge generator is configured such that the parasitic capacitor of the first transistor is used as a storage element to store a compensation charge portion for generating the compensation current (Ic), and the charge generator does not comprise a capacitor configured as a concrete device for purposes of compensation charge storing, - wherein the control circuit is
A method for performing blind decoding of a physical sidelink control channel, PSCCH, in a wireless communication system, the method performed by a user equipment, UE, and comprising: receiving (S1210) a blind decoding configuration from a network; and performing (S1220) blind decoding within a first transmission time interval, TTI, based on the blind decoding configuration, wherein the blind decoding includes a first blind decoding for a first PSCCH based on the first TTI and a second blind decoding for a second PSCCH based on a second TTI shorter than the first TTI, and wherein the blind decoding configuration is used to control at least one of a number of times the UE performs the first blind decoding within the first TTI and a number of times the UE performs the second blind decoding within the first TTI. receiving (S1210) a blind decoding configuration from a network; and performing (S1220) blind decoding within a first transmission time interval, TTI, based on the blind decoding configuration, wherein the blind decoding includes a first blind decoding for a first PSCCH based on the first TTI and a second blind decoding for a second PSCCH based on a second TTI shorter than the first TTI, and wherein the blind decoding configuration is used to control at least one of a number of times the UE performs the first blind decoding within the first TTI and a number of times the UE performs the second blind decoding within the first TTI.
An apparatus for processing a lithographic printing plate material comprising - at least two roller pairs ; - a development unit; and - a recirculation system comprising a closed loop including at least one inlet opening for sucking in a development solution and at least one inlet opening for injecting said developing solution; characterised in that the closed loop is air-free and that the inlet openings for injecting the developing solution are selected from spray nozzles and jet nozzles. - at least two roller pairs ; - a development unit; and - a recirculation system comprising a closed loop including at least one inlet opening for sucking in a development solution and at least one inlet opening for injecting said developing solution; characterised in that the closed loop is air-free and that the inlet openings for injecting the developing solution are selected from spray nozzles and jet nozzles.
A quick release tag holder system ("QRTHS") comprising: a collar disposable around a neck of an animal ; a tag holder comprising an inner side and an outer side, said tag holder comprising: a first slot and a second slot , each of the first slot and the second slot having dimensions to accommodate said collar ; and a recess provided between the first slot and the second slot ; a tag having a bottom portion and an upper portion , said bottom portion having at least one smaller diameter region , being smaller than a medium-size diameter of said recess , and said upper portion having a wider diameter region , being wider than said medium-size diameter of said recess , ensuring that removal of the tag from the recess occurs solely upwardly; said tag further comprising a securing means, said securing means comprising at least one dynamic protruding element configured to provide a snap connection into the tag holder , thereby allowing the tag to click-in within the recess , and reversibly retractable by application of pressure on at least a portion thereof for a quick release of said tag from said recess without removal of the collar from the neck of the animal ; and wherein, when assembled, said bottom portion is at least partially accommodated within said recess , and said collar passes through said first slot from the inner side toward the outer side, over said upper portion of the tag , and through said second slot from the outer side toward the inner side. a collar disposable around a neck of an animal ; a tag holder comprising an inner side and an outer side, said tag holder comprising: a first slot and a second slot , each of the first slot and the second slot having dimensions to accommodate said collar ; and a recess provided between the first slot and the second slot ; a first slot and a second slot , each of the first slot and the second slot having dimensions to accommodate said collar ; and a recess provided between the first slot and the second slot ; a tag having a bottom portion and an upper portion , said bottom portion having at least one smaller diameter region , being smaller than a medium-size diameter of said recess , and said upper portion having a wider diameter region , being wider than said medium-size diameter of said recess , ensuring that removal of the tag from the recess occurs solely upwardly; said tag further comprising a securing means, said securing means comprising at least one dynamic protruding element configured to provide a snap connection into the tag holder , thereby allowing the tag to click-in within the recess , and reversibly retractable by application of pressure on at least a portion thereof for a quick release of said tag from said recess without removal of the collar from the neck of the animal ; and wherein, when assembled, said bottom portion is at least partially accommodated within said recess , and said collar passes through said first slot from the inner side toward the outer side, over said upper portion of the tag , and through said second slot from the outer side toward the inner side.
A method of MRI of a specimen wherein an MRI probe has previously been introduced into said specimen , wherein the MRI probe has a localized region of sensitivity within the specimen and includes an antenna which includes one or more winding leads coiled along a substantial length of the MRI probe, such that a spoiling magnetic field is provided along the substantial length of the antenna except from the localized region of sensitivity which is disk-shaped and perpendicular to a length axis of the MRI probe; the method comprising: using the antenna, acquiring image data of the specimen while the specimen is located in a main magnetic field (B 0 ) of an MRI scanner, locking a spatial coordinate frame of reference for imaging to the disk-shaped localized sensitive region of the MRI probe which is introduced into the specimen located in the main magnetic field (B 0 ) of the MRI scanner by using the loops to excite MRI signals selectively in the disk-shaped localized region of sensitivity. using the antenna, acquiring image data of the specimen while the specimen is located in a main magnetic field (B 0 ) of an MRI scanner, locking a spatial coordinate frame of reference for imaging to the disk-shaped localized sensitive region of the MRI probe which is introduced into the specimen located in the main magnetic field (B 0 ) of the MRI scanner by using the loops to excite MRI signals selectively in the disk-shaped localized region of sensitivity.
A computer implemented method, comprising: transmitting a transmit command to a first data concentrator to send out a predetermined signal of predetermined characteristics according to a transmission setting; receiving a received signal from at least one second data concentrator , wherein the received signal is received by the second data concentrator during transmission of the predetermined signal from the first data concentrator ; and determining if there are any signal transmission effects between the first data concentrator and the second data concentrator based on a comparison of the predetermined signal and the received signal; the method characterised in that at least one of: an aircraft wireless networking system comprises the first data concentrator and the second data concentrator and the method further comprises receiving an aircraft startup signal before transmitting the transmit command to cause the method to be performed with every aircraft startup; and/or the method further comprises receiving a scheduled start signal before transmitting the transmit command to cause the method to be executed according to a predetermined schedule. transmitting a transmit command to a first data concentrator to send out a predetermined signal of predetermined characteristics according to a transmission setting; receiving a received signal from at least one second data concentrator , wherein the received signal is received by the second data concentrator during transmission of the predetermined signal from the first data concentrator ; and determining if there are any signal transmission effects between the first data concentrator and the second data concentrator based on a comparison of the predetermined signal and the received signal; the method characterised in that at least one of: an aircraft wireless networking system comprises the first data concentrator and the second data concentrator and the method further comprises receiving an aircraft startup signal before transmitting the transmit command to cause the method to be performed with every aircraft startup; and/or the method further comprises receiving a scheduled start signal before transmitting the transmit command to cause the method to be executed according to a predetermined schedule. an aircraft wireless networking system comprises the first data concentrator and the second data concentrator and the method further comprises receiving an aircraft startup signal before transmitting the transmit command to cause the method to be performed with every aircraft startup; and/or the method further comprises receiving a scheduled start signal before transmitting the transmit command to cause the method to be executed according to a predetermined schedule.
A system, comprising - a surface material comprising (i) a first layer having perforations and (ii) a second layer carrying fibers , wherein the fibers are arranged such that they penetrate the first layer having perforations via the perforations, - a mechanism for switching the fibers between an erected position and a relaxed position, - a control unit for comparing an actual temperature T A at at least one position of the surface material with a temperature threshold T T and for controlling the mechanism for switching the fibers between an erected position and a relaxed position based on the result of the comparison. - a surface material comprising (i) a first layer having perforations and (ii) a second layer carrying fibers , - a mechanism for switching the fibers between an erected position and a relaxed position, - a control unit for comparing an actual temperature T A at at least one position of the surface material with a temperature threshold T T and for controlling the mechanism for switching the fibers between an erected position and a relaxed position based on the result of the comparison.