mhurhangee/patent-ind-claim-en huggingface dataset:
Damping element comprising a head part , neck part and foot part of concrete adjoining one another in the longitudinal direction , wherein the cross section of the neck part transversely to the longitudinal direction is smaller than the cross section of the head part transversely to the longitudinal direction and is smaller than the cross section of the foot part transversely to the longitudinal direction, whereby the foot part has a tapered periphery , characterized in that the foot part has a recess (15, 15', 15") directed transversely to the longitudinal direction over at least a portion of said tapered periphery .
A thermoplastic elastomeric film comprising greater than 50% by weight of a polyolefin-based thermoplastic elastomer, a styrenic block copolymer, and from 3-8% by weight of a strength-enhancing agent, wherein the strength-enhancing agent is inorganic clay.
An apparatus for wireless communication by a user equipment, UE, comprising: means for receiving signaling that configures the UE with at least one bandwidth part and an active bandwidth part from the at least one bandwidth part; means for receiving an indication of a positioning reference signal, PRS, configuration for a transmission reception point, the PRS configuration indicating a reference point within a carrier bandwidth of a component carrier and a bandwidth or a number of resource blocks of a frequency domain allocation, wherein the frequency domain allocation intersects with and exceeds a bandwidth of the active bandwidth part; means for determining, based at least in part on the PRS configuration, a start of the frequency domain allocation that is offset by a gap in frequency relative to the reference point ; means for receiving a measurement indicator that configures the UE to measure a PRS over the bandwidth or the number of resource blocks of the frequency domain allocation that exceeds the bandwidth of the active bandwidth part; and means for measuring the PRS based at least in part on the frequency domain allocation and the measurement indicator. means for receiving signaling that configures the UE with at least one bandwidth part and an active bandwidth part from the at least one bandwidth part; means for receiving an indication of a positioning reference signal, PRS, configuration for a transmission reception point, the PRS configuration indicating a reference point within a carrier bandwidth of a component carrier and a bandwidth or a number of resource blocks of a frequency domain allocation, wherein the frequency domain allocation intersects with and exceeds a bandwidth of the active bandwidth part; means for determining, based at least in part on the PRS configuration, a start of the frequency domain allocation that is offset by a gap in frequency relative to the reference point ; means for receiving a measurement indicator that configures the UE to measure a PRS over the bandwidth or the number of resource blocks of the frequency domain allocation that exceeds the bandwidth of the active bandwidth part; and means for measuring the PRS based at least in part on the frequency domain allocation and the measurement indicator.
A training system comprising: a robot ; a robot-guided actuation surface ; an activity detection means for determining a biomechanical and / or cardiovascular load of a user , in particular on the basis of a loading of the actuation surface determined by a force detection means of the training system; and a control means for controlling, in a closed-loop control manner, the robot on the basis of a biomechanical and / or cardiovascular load of the user specified in advance and the detected biomechanical and / or cardiovascular load of the user; characterised in that the training system comprises a safety means for monitoring the loading of the actuation surface, in particular for redundantly monitoring the loading of the actuation surface, the determined biomechanical and / or cardiovascular load of the user and / or the condition of the robot. a robot ; a robot-guided actuation surface ; an activity detection means for determining a biomechanical and / or cardiovascular load of a user , in particular on the basis of a loading of the actuation surface determined by a force detection means of the training system; and a control means for controlling, in a closed-loop control manner, the robot on the basis of a biomechanical and / or cardiovascular load of the user specified in advance and the detected biomechanical and / or cardiovascular load of the user; characterised in that the training system comprises a safety means for monitoring the loading of the actuation surface, in particular for redundantly monitoring the loading of the actuation surface, the determined biomechanical and / or cardiovascular load of the user and / or the condition of the robot.
A communication method , comprising: determining a level of timing synchronization between a first access point and one or more neighboring access points; sending , from the first access point to an access terminal, a synchronization advertisement message that identifies the level of timing synchronization; and synchronizing , at the first access point, reference signal timing with at least one of the one or more neighboring access points based on the determining, wherein the reference signal timing corresponds to timing of a Discovery Reference Signal, DRS, Transmission Window, DTxW, and wherein the synchronizing comprising synchronizing the DTxW of the first access point and the at least one of the one or more neighboring access points to within a margin. determining a level of timing synchronization between a first access point and one or more neighboring access points; sending , from the first access point to an access terminal, a synchronization advertisement message that identifies the level of timing synchronization; and synchronizing , at the first access point, reference signal timing with at least one of the one or more neighboring access points based on the determining, wherein the reference signal timing corresponds to timing of a Discovery Reference Signal, DRS, Transmission Window, DTxW, and wherein the synchronizing comprising synchronizing the DTxW of the first access point and the at least one of the one or more neighboring access points to within a margin.
An eddy current sensor, comprising: a housing ; and a plurality of probes which are all disposed inside the housing , probing ends of the probes being all disposed at inner side of an exterior surface of the housing to avoid the probing ends of the probes from protruding out of the exterior surface of the housing ; wherein the housing is of an annular structure; an annular groove is provided inside the housing ; characterized in that an inner wall of the housing is formed between an inner groove wall of the annular groove and the inner annular face of the housing ; and the inner wall has a radial probing hole disposed therethrough along a radial direction of the housing . a housing ; and a plurality of probes which are all disposed inside the housing , probing ends of the probes being all disposed at inner side of an exterior surface of the housing to avoid the probing ends of the probes from protruding out of the exterior surface of the housing ; wherein the housing is of an annular structure; an annular groove is provided inside the housing ; characterized in that an inner wall of the housing is formed between an inner groove wall of the annular groove and the inner annular face of the housing ; and the inner wall has a radial probing hole disposed therethrough along a radial direction of the housing .
Method for assisting during a manoeuvring operation of a tractor-trailer combination of a tractor vehicle and a trailer , comprising the steps of: • capturing a spatially fixed object by way of a reversing camera of the tractor vehicle ; • ascertaining that the object is obscured for the reversing camera by the trailer ; and • superimposing an image presentation of the trailer with an image element representing the obscured object in an image ascertained by means of the reversing camera . • capturing a spatially fixed object by way of a reversing camera of the tractor vehicle ; • ascertaining that the object is obscured for the reversing camera by the trailer ; and • superimposing an image presentation of the trailer with an image element representing the obscured object in an image ascertained by means of the reversing camera .
An electronic device comprising: an optical sensor module including a first optical sensor and a second optical sensor ; a window covering the optical sensor module; a first shield-printed layer printed in a first region for transmitting a sensor light from the first optical sensor on a lower surface of the window facing the optical sensor module; and a second shield-printed layer printed in a second region for transmitting a sensor light from the second optical sensor on the lower surface of the window, wherein the first and second shield-printed layers are printed using a same coloring material, characterised in that the coloring material contains both a dye composition and a pigment composition. an optical sensor module including a first optical sensor and a second optical sensor ; a window covering the optical sensor module; a first shield-printed layer printed in a first region for transmitting a sensor light from the first optical sensor on a lower surface of the window facing the optical sensor module; and a second shield-printed layer printed in a second region for transmitting a sensor light from the second optical sensor on the lower surface of the window, wherein the first and second shield-printed layers are printed using a same coloring material, characterised in that the coloring material contains both a dye composition and a pigment composition.
A communication method for a wearable device, the method comprising: determining (S101) a network camping preference mode of the wearable device, wherein the network camping preference mode is determined based on a network camping priority, and the network camping priority indicates priorities of a plurality of terminal capability levels of the wearable device during a network camping procedure of the wearable device; determining (S102) a 3GPP release network version of a network to be camped on; determining (S103) a first terminal capability level based on the 3GPP release network version and the network camping priority, wherein the first terminal capability level has a highest priority among the plurality of terminal capability levels and is adapted to the 3GPP release network version, and wherein the terminal capability levels of the wearable device comprise at least one of Cat.1bis, Cat.M1, Cat.M2 and Non-BL Cat.1bis; and communicating (S104) with the network to be camped on based on the first terminal capability level. determining (S101) a network camping preference mode of the wearable device, wherein the network camping preference mode is determined based on a network camping priority, and the network camping priority indicates priorities of a plurality of terminal capability levels of the wearable device during a network camping procedure of the wearable device; determining (S102) a 3GPP release network version of a network to be camped on; determining (S103) a first terminal capability level based on the 3GPP release network version and the network camping priority, wherein the first terminal capability level has a highest priority among the plurality of terminal capability levels and is adapted to the 3GPP release network version, and wherein the terminal capability levels of the wearable device comprise at least one of Cat.1bis, Cat.M1, Cat.M2 and Non-BL Cat.1bis; and communicating (S104) with the network to be camped on based on the first terminal capability level.
A method for switching coordinator in a personal area network including at least one coordinator and at least one device, the method comprising: establishing , by a coordinator, being one of the at least one coordinator, a network session between said coordinator and the at least one device; receiving , by the coordinator, an indication of relocation from the at least one device that takes said device out of a network zone, transmitting , by the coordinator, through the established network session , information of a new coordinator determined based on a relocation indication by the at least one device , to the at least one device and releasing , by the coordinator, an association between the coordinator and the at least one device. establishing , by a coordinator, being one of the at least one coordinator, a network session between said coordinator and the at least one device; receiving , by the coordinator, an indication of relocation from the at least one device that takes said device out of a network zone, transmitting , by the coordinator, through the established network session , information of a new coordinator determined based on a relocation indication by the at least one device , to the at least one device and releasing , by the coordinator, an association between the coordinator and the at least one device.
An assembly for use with an insertion device including a main body having a plunger that moves in a lens advancing direction (X) and an intraocular lens having an optical portion and one or more supporting portions provided on an outer fringe of the optical portion , the assembly comprising: an intraocular lens cartridge that is configured to be attached to the insertion device main body and that includes a cartridge body with a lens insertion opening , a lens placement portion , a transition portion , and a nozzle portion in sequence along the lens advancing direction (X), and an internal lumen that extends through the lens placement portion , the transition portion , and the nozzle portion ; and a cartridge casing including a main body that is configured to be removably attached to the intraocular lens cartridge and a protrusion ; characterized by the cartridge body includes a protrusion insertion hole that penetrates the thickness of the intraocular lens cartridge and extends in a direction (Z) that is perpendicular to the lens advancing direction (X) and a lateral direction (Y), from the exterior of the intraocular lens cartridge to the lumen; and the intraocular lens cartridge and the cartridge casing are respectively configured such that the protrusion extends through the protrusion insertion hole with the tip end of the protrusion exposed to the internal lumen at a location between the nozzle portion and lens insertion opening when the intraocular lens cartridge is installed on the cartridge casing so that one of the supporting portion will be folded by the protrusion in a direction opposite of the lens advancing direction (X). an intraocular lens cartridge that is configured to be attached to the insertion device main body and that includes a cartridge body with a lens insertion opening , a lens placement portion , a transition portion , and a nozzle portion in sequence along the lens advancing direction (X), and an internal lumen that extends through the lens placement portion , the transition portion , and the nozzle portion ; and a cartridge casing including a main body that is configured to be removably attached to the intraocular lens cartridge and a protrusion ; characterized by the cartridge body includes a protrusion insertion hole that penetrates the thickness of the intraocular lens cartridge and extends in a direction (Z) that is perpendicular to the lens advancing direction (X) and a lateral direction (Y), from the exterior of the intraocular lens cartridge to the lumen; and the intraocular lens cartridge and the cartridge casing are respectively configured such that the protrusion extends through the protrusion insertion hole with the tip end of the protrusion exposed to the internal lumen at a location between the nozzle portion and lens insertion opening when the intraocular lens cartridge is installed on the cartridge casing so that one of the supporting portion will be folded by the protrusion in a direction opposite of the lens advancing direction (X).
Centrifugal compression device for a working gas, notably for a refrigeration machine, including several centrifugal compressors forming several successive and/or parallel compression stages and several drive motors for the compressors , the device having a gas circuit comprising a first inlet line for the gas to be compressed that is linked to an inlet of a first compressor to convey the gas to be compressed into the first compressor , the circuit having a second line linked to an outlet of said first compressor to discharge the gas compressed in this latter, the second line being linked to an inlet of a second compressor to convey the gas that has been compressed in the first compressor into the second compressor in order to perform a second compression, the circuit having a third cooling line with one upstream end connected to an outlet of at least one of the compressors and one downstream end connected to an inlet of at least one first motor for transferring a fraction of the gas compressed in said compressor into said at least one first motor in order to limit the heating thereof, characterized in that the circuit includes a fourth line having an upstream end linked to an outlet of the first motor designed to recover the gas that has flowed through the first motor and a downstream end linked to an inlet of a second motor designed to transfer the gas there in order to limit the heating of the second motor .
An antenna module, comprising: a multilayer substrate ; a ground plane in the multilayer substrate ; a mold on the multilayer substrate ; a conductive wall separating a first portion of the mold from a second portion of the mold and electrically coupled to the ground plane , the first portion of the mold covering a first portion of the multilayer substrate, the second portion of the mold covering a second portion of the multilayer substrate; a conformal shield on a surface of the second portion of the mold and electrically coupled to the ground plane ; a first antenna included in the first portion of the multilayer substrate; the antenna module being characterized in that it further comprises : a second antenna included in the second portion of the multilayer substrate. a multilayer substrate ; a ground plane in the multilayer substrate ; a mold on the multilayer substrate ; a conductive wall separating a first portion of the mold from a second portion of the mold and electrically coupled to the ground plane , the first portion of the mold covering a first portion of the multilayer substrate, the second portion of the mold covering a second portion of the multilayer substrate; a conformal shield on a surface of the second portion of the mold and electrically coupled to the ground plane ; a first antenna included in the first portion of the multilayer substrate; the antenna module being characterized in that it further comprises : a second antenna included in the second portion of the multilayer substrate.
A system comprising: a display configured to display: 3D image data of a target area, the 3D image data including locations of fiducial markers , first 2D image data of the target imaged from a first viewpoint , and second 2D image data of the target imaged from a second viewpoint , the second viewpoint oriented at a known angle from the first viewpoint; a computing device including a processor and a memory storing instructions which, when executed by the processor, cause the computing device to: determine locations of the fiducial markers in 3D space according to locations of the fiducial markers within first 2D image data, second 2D image data, and the known angle; and update the 3D image data with the determined locations of the fiducial markers in 3D space. a display configured to display: 3D image data of a target area, the 3D image data including locations of fiducial markers , first 2D image data of the target imaged from a first viewpoint , and second 2D image data of the target imaged from a second viewpoint , the second viewpoint oriented at a known angle from the first viewpoint; 3D image data of a target area, the 3D image data including locations of fiducial markers , first 2D image data of the target imaged from a first viewpoint , and second 2D image data of the target imaged from a second viewpoint , the second viewpoint oriented at a known angle from the first viewpoint; a computing device including a processor and a memory storing instructions which, when executed by the processor, cause the computing device to: determine locations of the fiducial markers in 3D space according to locations of the fiducial markers within first 2D image data, second 2D image data, and the known angle; and update the 3D image data with the determined locations of the fiducial markers in 3D space. determine locations of the fiducial markers in 3D space according to locations of the fiducial markers within first 2D image data, second 2D image data, and the known angle; and update the 3D image data with the determined locations of the fiducial markers in 3D space.
Method for the error analysis of a speed-sensing system on a two-wheeled vehicle , wherein the speed-sensing system has • at least one magnet , fitted on a rotatably mounted wheel , and • a first magnetic field sensor unit , coupled directly or indirectly to the frame of the vehicle, for sensing the magnetic field strength of the magnet , and • an evaluation unit for the output of speed information in dependence on the sensed magnetic field strength, wherein, for the error analysis, • an image of the side view of the two-wheeled vehicle is captured, and • a distance between the at least one wheel and the first magnetic field sensor unit in the image plane of the side view is determined from the image data of the side view, and • a first error message is generated if the distance exceeds a first threshold value (SW1). • at least one magnet , fitted on a rotatably mounted wheel , and • a first magnetic field sensor unit , coupled directly or indirectly to the frame of the vehicle, for sensing the magnetic field strength of the magnet , and • an evaluation unit for the output of speed information in dependence on the sensed magnetic field strength, • an image of the side view of the two-wheeled vehicle is captured, and • a distance between the at least one wheel and the first magnetic field sensor unit in the image plane of the side view is determined from the image data of the side view, and • a first error message is generated if the distance exceeds a first threshold value (SW1).