mhurhangee/patent-ind-claim-en huggingface dataset:
A support frame for an unmanned aerial vehicle, UAV, the support frame comprising a locking assembly and at least two support rods , the locking assembly including a first locking frame and a locking block , wherein the at least two support rods are disposed on the first locking frame , the first locking frame is slidable relative to and along at least one of the support rods , the at least two support rods include at least one first support rod and at least one second support rod , the locking block is configured to move in a direction perpendicular to an axial direction of the second support rod and to press tightly on the second support rod , to lock the second support rod at a current location relative to an axial direction of the first support rod , wherein the first locking frame is provided with at least one through hole, the second support rod corresponds to the through hole one on one and penetrates the through hole, a wall of the through hole includes a through groove , the locking block is located in the through groove , the locking block is movable in a cross-sectional direction of the through hole relative to the first locking frame and can lock at at least one location in the cross-sectional direction of the through hole, the locking block is configured to tightly press, together with the wall of the through hole opposite the through groove , the second support rod at the current location in the axial direction.
A washing machine of a type comprising: - a support and containment structure , having a first face provided with at least one opening, for putting laundry therein and taking it out; - a washing tub arranged inside said structure ; - a drum for containing laundry, fixed to said washing tub on the opposite side with respect to said first face so as to be rotatable about its own longitudinal axis (X); - motor means comprising a stator and a rotor suitable for determining an interaction of an electromagnetic nature; wherein said rotor and said stator are secured to said drum and to said washing tub respectively, their own active surfaces being arranged opposite one another; characterized in that said active surfaces are inclined with respect to said longitudinal axis (X). - a support and containment structure , having a first face provided with at least one opening, for putting laundry therein and taking it out; - a washing tub arranged inside said structure ; - a drum for containing laundry, fixed to said washing tub on the opposite side with respect to said first face so as to be rotatable about its own longitudinal axis (X); - motor means comprising a stator and a rotor suitable for determining an interaction of an electromagnetic nature; wherein said rotor and said stator are secured to said drum and to said washing tub respectively, their own active surfaces being arranged opposite one another; characterized in that said active surfaces are inclined with respect to said longitudinal axis (X).
A shader processing unit for a graphics processing unit , the shader processing unit configured to execute one or more shaders, the one or more shaders comprising one or more ray tracing shaders that generate ray data associated with one or more rays, the ray data for a ray comprising a plurality of ray data elements, the shader processing unit comprising: storage ; and store logic configured to: receive a ray store instruction that comprises: (i) information identifying a store group of a plurality of store groups, each store group of the plurality of store groups comprising one or more ray data elements of the plurality of ray data elements, and (ii) information identifying one or more ray data elements of the identified store group to be stored in an external unit ; in response to receiving the ray store instruction , retrieve the identified ray data elements for one or more rays from the storage ; and send one or more store requests to the external unit which cause the external unit to store the identified ray data elements for the one or more rays. storage ; and store logic configured to: receive a ray store instruction that comprises: (i) information identifying a store group of a plurality of store groups, each store group of the plurality of store groups comprising one or more ray data elements of the plurality of ray data elements, and (ii) information identifying one or more ray data elements of the identified store group to be stored in an external unit ; in response to receiving the ray store instruction , retrieve the identified ray data elements for one or more rays from the storage ; and send one or more store requests to the external unit which cause the external unit to store the identified ray data elements for the one or more rays. receive a ray store instruction that comprises: (i) information identifying a store group of a plurality of store groups, each store group of the plurality of store groups comprising one or more ray data elements of the plurality of ray data elements, and (ii) information identifying one or more ray data elements of the identified store group to be stored in an external unit ; in response to receiving the ray store instruction , retrieve the identified ray data elements for one or more rays from the storage ; and send one or more store requests to the external unit which cause the external unit to store the identified ray data elements for the one or more rays.
A heat exchange module for hypothermia treatment of a user, comprising: a channel enclosure including first and second flexible sheets attached together so as to form therebetween a channel configured for passing a heat-transfer liquid; said channel enclosure having a plurality of window openings in said first flexible sheet , with said window openings configured to expose the interior of said channel; a first thermally-conductive plate assembly comprising thermally-conductive plate pieces for heat transfer through said window openings with the heat-transfer liquid when present and flowing in the channel; a thermoelectric cooler assembly having thermoelectric coolers each with a reference side for coupling thermal energy to said channel enclosure and a user side for coupling thermal energy from a user side of said heat exchange module, said thermoelectric cooler assembly comprising thermoelectric coolers whose reference side is in heat transfer relation with the thermally-conductive plate pieces ; wherein said thermally conductive plates pieces of said first thermally conductive plate assembly are spaced from each other and configured to seal said plurality of window openings in said first flexible sheet for transferring thermal energy into said channel enclosure ; a heat distribution cover assembly comprising a flexible frame configured for retaining a second thermally conductive plate assembly of thermally-conductive tiles which are in heat transfer relation with user sides of said thermoelectric coolers ; and said second thermally conductive plate assembly of thermally-conductive tiles . a channel enclosure including first and second flexible sheets attached together so as to form therebetween a channel configured for passing a heat-transfer liquid; said channel enclosure having a plurality of window openings in said first flexible sheet , with said window openings configured to expose the interior of said channel; a first thermally-conductive plate assembly comprising thermally-conductive plate pieces for heat transfer through said window openings with the heat-transfer liquid when present and flowing in the channel; a thermoelectric cooler assembly having thermoelectric coolers each with a reference side for coupling thermal energy to said channel enclosure and a user side for coupling thermal energy from a user side of said heat exchange module, said thermoelectric cooler assembly comprising thermoelectric coolers whose reference side is in heat transfer relation with the thermally-conductive plate pieces ; wherein said thermally conductive plates pieces of said first thermally conductive plate assembly are spaced from each other and configured to seal said plurality of window openings in said first flexible sheet for transferring thermal energy into said channel enclosure ; a heat distribution cover assembly comprising a flexible frame configured for retaining a second thermally conductive plate assembly of thermally-conductive tiles which are in heat transfer relation with user sides of said thermoelectric coolers ;
An armrest comprising a top surface ; a first side surface and a second side surface being opposite to said first side surface; wherein said top surface incorporates a number of discrete regions ; a first discrete region on which, in use, the elbow of a first user may rest; said first discrete region extending diagonally towards said first side surface; and at least one further discrete region located in front of said first discrete region which extends diagonally towards said second side surface; whereby said second discrete region provides, in use, a resting surface for the elbow of a second user seated in an adjacent seat; wherein said first region is bounded by a first diagonal line of separation located between said first and second region; characterised in that said first and second regions slope oppositely from one another down towards respective side surfaces; and said second region is bounded by said first diagonal line of separation and a further diagonal line of separation extending in the opposite direction to said first line.
A wearable device comprising: a first sensor for monitoring the thoracic breath of the patient; a second sensor for monitoring the abdominal breath of the patient; an embedded computing unit configured for receiving signals output by said first sensor and by said second sensor, said embedded computing unit further configured for detecting sleep apnea syndrome (SAS) events based on said signals, characterised in said embedded computing unit comprising a counter adapted for counting the number of SAS event detected during each night or period of sleep, said embedded computing unit being further arranged for triggering an additional measure if the number of detected SAS events exceeds a threshold N or after a serious SAS event, corresponding to a SAS event exceeding a duration threshold, said additional measure being triggered by the computing unit only after said number N of SAS is detected during a period or after a SAS event exceeds said duration threshold. a first sensor for monitoring the thoracic breath of the patient; a second sensor for monitoring the abdominal breath of the patient; an embedded computing unit configured for receiving signals output by said first sensor and by said second sensor, said embedded computing unit further configured for detecting sleep apnea syndrome (SAS) events based on said signals, characterised in said embedded computing unit comprising a counter adapted for counting the number of SAS event detected during each night or period of sleep, said embedded computing unit being further arranged for triggering an additional measure if the number of detected SAS events exceeds a threshold N or after a serious SAS event, corresponding to a SAS event exceeding a duration threshold, said additional measure being triggered by the computing unit only after said number N of SAS is detected during a period or after a SAS event exceeds said duration threshold.
A detection system for light communications, the detection system comprising: a total internal reflection, TIR, waveguide comprising: a first structure having a first index of refraction, wherein a second index of refraction adjacent the first structure is less than the first index of refraction such that light for light communications input to the TIR waveguide at one or more waveguide entrances propagates along the TIR waveguide within the first structure, said light comprising a plurality of wavelengths; a diffusive element disposed along an internal edge of the first structure at a first location of the TIR waveguide offset from one or more second locations of the one or more corresponding waveguide entrances; and a plurality of wavelength specific light sensors disposed adjacent an edge of the first structure opposite the first location and each spaced from the diffusive element by a thickness of the first structure, wherein each of said plurality of wavelength specific light sensors detects a different subset of the plurality of wavelengths of light disrupted by the diffusive element. a first structure having a first index of refraction, wherein a second index of refraction adjacent the first structure is less than the first index of refraction such that light for light communications input to the TIR waveguide at one or more waveguide entrances propagates along the TIR waveguide within the first structure, said light comprising a plurality of wavelengths; a diffusive element disposed along an internal edge of the first structure at a first location of the TIR waveguide offset from one or more second locations of the one or more corresponding waveguide entrances; and a plurality of wavelength specific light sensors disposed adjacent an edge of the first structure opposite the first location and each spaced from the diffusive element by a thickness of the first structure, wherein each of said plurality of wavelength specific light sensors detects a different subset of the plurality of wavelengths of light disrupted by the diffusive element.
A method performed by a communication node, comprising: obtaining random access information, wherein the random access information comprises a first sequence number of an initial subframe of a preamble transmission, a second sequence number of an initial radio frame of the preamble transmission, and a random access, RA, response window length; and determining a random access radio network temporary identity, RA-RNTI, according to the first sequence number of the initial subframe of the preamble transmission, the second sequence number of the initial radio frame of the preamble transmission, and the RA response window length. obtaining random access information, wherein the random access information comprises a first sequence number of an initial subframe of a preamble transmission, a second sequence number of an initial radio frame of the preamble transmission, and a random access, RA, response window length; and determining a random access radio network temporary identity, RA-RNTI, according to the first sequence number of the initial subframe of the preamble transmission, the second sequence number of the initial radio frame of the preamble transmission, and the RA response window length.
A terminal in a wireless communication system, the terminal comprising: a transceiver configured to transmit and receive a signal; and a controller coupled with the transceiver and configured to: receive, from a base station , a radio resource control, RRC, message including configuration information on channel state information reference signal, CSI-RS, resources, the configuration information including an aperiodic triggering offset X in units of slots, receive, from the base station , a physical downlink control channel, PDCCH, triggering an aperiodic channel state information, CSI, reporting in a first slot n 1 , and receive, from the base station , an aperiodic CSI-RS in a second slot n 2 based on the configuration information and the PDCCH, wherein a first numerology of the PDCCH μ 1 and a second numerology of the aperiodic CSI-RS μ 2 are different from each other, wherein the second slot is identified based on the first slot and the aperiodic triggering offset, and wherein the second slot n 2 is identified as a slot ⌊ n 1 ⋅ 2 μ 2 2 μ 1 ⌋ + X , where X is in the second numerology μ 2 . a transceiver configured to transmit and receive a signal; and a controller coupled with the transceiver and configured to: receive, from a base station , a radio resource control, RRC, message including configuration information on channel state information reference signal, CSI-RS, resources, the configuration information including an aperiodic triggering offset X in units of slots, receive, from the base station , a physical downlink control channel, PDCCH, triggering an aperiodic channel state information, CSI, reporting in a first slot n 1 , and receive, from the base station , an aperiodic CSI-RS in a second slot n 2 based on the configuration information and the PDCCH, wherein a first numerology of the PDCCH μ 1 and a second numerology of the aperiodic CSI-RS μ 2 are different from each other, wherein the second slot is identified based on the first slot and the aperiodic triggering offset, and wherein the second slot n 2 is identified as a slot ⌊ n 1 ⋅ 2 μ 2 2 μ 1 ⌋ + X , where X is in the second numerology μ 2 . receive, from a base station , a radio resource control, RRC, message including configuration information on channel state information reference signal, CSI-RS, resources, the configuration information including an aperiodic triggering offset X in units of slots, receive, from the base station , a physical downlink control channel, PDCCH, triggering an aperiodic channel state information, CSI, reporting in a first slot n 1 , and receive, from the base station , an aperiodic CSI-RS in a second slot n 2 based on the configuration information and the PDCCH, wherein a first numerology of the PDCCH μ 1 and a second numerology of the aperiodic CSI-RS μ 2 are different from each other, wherein the second slot is identified based on the first slot and the aperiodic triggering offset, and wherein the second slot n 2 is identified as a slot ⌊ n 1 ⋅ 2 μ 2 2 μ 1 ⌋ + X , where X is in the second numerology μ 2 .
A tool head, comprising a cutting portion and a mounting portion, the mounting portion including an axial stop surface and a radial stop surface , wherein dimensions and tolerances of the axial stop surface and the radial stop surface are selected such that the axial stop surface abuts an axial stop on a toolholder to prevent axial movement of the toolholder relative to the tool head beyond the axial stop surface and the radial stop surface is constrained by a radial stop of the toolholder to limit radial movement of the tool head relative to the toolholder when an integral fastening portion of the tool head and an integral fastening portion of the toolholder are fastened directly to one another and the axial stop surface and the axial stop abut, the radial stop surface forming no part of the integral fastening portion of the tool head , the integral fastening portion of the tool head is an internal integral fastening portion, and the radial stop surface is part of an annular protrusion around an axis (A) of the tool head , the radial stop surface including a surface facing away from the axis (A) of the tool head and a fluted part of the tool head being remote from the annular protrusion and the radial stop surface , characterized in that the axial stop surface is disposed axially between the integral fastening portion and the radial stop surface .
An adaptor for an anchor comprising: a first member configured for coupling a chain; a hollow second member for pivotally coupling an anchor; the second member defining a longitudinally extending blind slot on an inner surface and a longitudinally extending opening diametrically opposite the blind slot; the blind slot configured to restrict pivoting motion of the anchor within the second member; and a swivel coupler for coupling the first member to the second member. a first member configured for coupling a chain; a hollow second member for pivotally coupling an anchor; the second member defining a longitudinally extending blind slot on an inner surface and a longitudinally extending opening diametrically opposite the blind slot; the blind slot configured to restrict pivoting motion of the anchor within the second member; and a swivel coupler for coupling the first member to the second member.
An electric energy transmission joint, comprising an electric energy transmission copper part, an electric energy transmission aluminum part , and an aluminum wire , with the electric energy transmission copper part comprising a fixer for connection with an electric consumption device and a connector for connection with the electric energy transmission aluminum part , wherein a first through hole is provided inside the electric energy transmission aluminum part , a second through hole is provided inside the connector , an aluminum conductive core exposed by stripping an insulation layer from a front end of the aluminum wire is inserted into a cavity formed by the connection of the first through hole and the second through hole, and the electric energy transmission aluminum part is connected to the aluminum wire by crimping; characterized in that a transitional connection device is further provided between the aluminum conductive core and an inner wall of the cavity, and an inner surface and an outer surface of the transitional connection device is provided with protrusions for piercing oxide layers on a surface of the aluminum conductive core and a surface of the inner wall of the cavity.
A tubing with a light shield suitable for being arranged in a light shielding position with respect to a sensor or a blood leakage detector, the sensor or blood leakage detector being installed in a medical apparatus and monitoring for changes in transmittance of a translucent fluid carried in the tubing which is connected to the medical apparatus, wherein the light shield has a non-transparent configuration and is configured to prevent environmental light from being incident on a relevant detection active sensor area, characterized in that the light shield comprises a first light shield element formed of non-transparent coating or paint provided on the tubing at least over a region where the active sensor detecting area is underneath and does not touch the light path of the sensor and shields the sensor from impacts of environmental light.
A user terminal configured to communicate by using a first cell group, CG, and a second CG, comprising: a power control section configured to control UL transmission power for the first CG and the second CG; and a transmission section configured to transmit at least a physical random access channel, PRACH, wherein, when the transmission section retransmits the PRACH in a primary cell of the first CG and when a transmission power that is necessary to retransmit the PRACH in the first CG is prepared a predetermined period before the PRACH is retransmitted in the primary cell of the first CG, the power control section is configured to apply control so that power is preferentially allocated to the retransmission of the PRACH over transmission in the second CG, wherein, when total transmission power of the retransmission of the PRACH in the primary cell of the first CG and the transmission in the second CG exceeds maximum possible transmission power, the power control section is configured to apply power scaling or dropping to the transmission in the second CG. a power control section configured to control UL transmission power for the first CG and the second CG; and a transmission section configured to transmit at least a physical random access channel, PRACH, wherein, when the transmission section retransmits the PRACH in a primary cell of the first CG and when a transmission power that is necessary to retransmit the PRACH in the first CG is prepared a predetermined period before the PRACH is retransmitted in the primary cell of the first CG, the power control section is configured to apply control so that power is preferentially allocated to the retransmission of the PRACH over transmission in the second CG, wherein, when total transmission power of the retransmission of the PRACH in the primary cell of the first CG and the transmission in the second CG exceeds maximum possible transmission power, the power control section is configured to apply power scaling or dropping to the transmission in the second CG.