mhurhangee/patent-ind-claim-en huggingface dataset:
A face verification method, comprising: driving a movable component to extend out from a housing, wherein the movable component is received in the housing and capable of extending out from the housing; determining whether a total duration of the infrared camera being driven in a current verification of a face reaches a predetermined duration, in which when the total duration reaches the predetermined duration, a light entrance of an infrared camera is completely exposed from the housing, wherein the infrared camera is installed on the movable component and can be driven by the movable component; when the total duration reaches the predetermined duration, obtaining an infrared image by the infrared camera; and performing face verification based on the infrared image. driving a movable component to extend out from a housing, wherein the movable component is received in the housing and capable of extending out from the housing; determining whether a total duration of the infrared camera being driven in a current verification of a face reaches a predetermined duration, in which when the total duration reaches the predetermined duration, a light entrance of an infrared camera is completely exposed from the housing, wherein the infrared camera is installed on the movable component and can be driven by the movable component; when the total duration reaches the predetermined duration, obtaining an infrared image by the infrared camera; and performing face verification based on the infrared image.
Casting mould for casting steel melt (M) into a continuously drawn strand (S) wherein a surface texture is formed on at least one of the inner surfaces of the casting mould facing towards the melt (M) to be cast, said surface texture extending at least over the region (A3) of the casting mould , which, during operation, is wetted with slag (K) floating on the melt (M) that has been poured into the casting mould , wherein the surface texture is designed as a closed structure with completely bordered, randomly distributed indentations , characterised in that the mean roughness value Ra of the surface texture is between 10 μm and 50 μm and the mean roughness depth Rz of the surface texture is between 80 μm and 250 μm.
Robot lawnmower comprising a base frame , a cover integral with the base frame , two driving wheels and at least one directional idler wheel , wherein each driving wheel is driven by an electric motor , wherein each motor is fixed to a bracket to which the respective driving wheel is rotatably fixed, characterized in that the robot lawnmower comprises absorbing means of a bump of the robot lawnmower , wherein the absorbing means are adapted to allow the movement of the bracket with respect to the base frame in the case of a bump in the direction of motion of the robot lawnmower , wherein the absorbing means comprise elastic means adapted to keep the bracket in a position of equilibrium with respect to the base frame in the absence of bumps, said robot lawnmower further comprising at least one sensor fixed to the base frame and adapted to detect said movement of the bracket with respect to the base frame , and a control unit adapted to block and reverse the motion of the driving wheels following the detection of said movement of the bracket with respect to the base frame . each motor is fixed to a bracket to which the respective driving wheel is rotatably fixed, characterized in that the robot lawnmower comprises absorbing means of a bump of the robot lawnmower , wherein the absorbing means are adapted to allow the movement of the bracket with respect to the base frame in the case of a bump in the direction of motion of the robot lawnmower , wherein the absorbing means comprise elastic means adapted to keep the bracket in a position of equilibrium with respect to the base frame in the absence of bumps, said robot lawnmower further comprising at least one sensor fixed to the base frame and adapted to detect said movement of the bracket with respect to the base frame , and a control unit adapted to block and reverse the motion of the driving wheels following the detection of said movement of the bracket with respect to the base frame .
A centrifugal pump comprising a motor casing containing a motor associated with a hydraulic part , provided with at least one impeller , by means of a rotation transmission shaft , and said motor casing being provided with at least one surface that is struck by pumping liquid that arrives from said hydraulic part , the pump being characterized in that said motor casing is made of aluminum, and said surface struck by pumping liquid is provided by deposition of an oxidation-resistant coating , said surface provided by deposition of said oxidation-resistant coating being arranged, on the hydraulic side, at the interface between said hydraulic part and said motor , said coating being provided by: a Polytetrafluoroethylene (PTFE) coating; deposition of ceramic material; or overmolding plastic material. a Polytetrafluoroethylene (PTFE) coating; deposition of ceramic material; or overmolding plastic material.
Capsule containing a substance for the preparation of a potable beverage by extracting and/or dissolving the substance by means of supplying a fluid under pressure into the capsule, wherein the capsule comprises an aluminum capsule body having a central capsule body axis, said aluminum capsule body being provided with a bottom, a side wall and an outwardly extending flange, the capsule further comprising an aluminum cover attached to the outwardly extending flange, the cover hermetically closing the capsule, wherein the capsule further comprises a sealing member at the outwardly extending flange for providing a fluid sealing contact with an enclosing member of a beverage preparation device if the capsule is positioned in the enclosing member of the beverage preparation device and the enclosing member is closed by means of a closing member of the beverage preparation device, such as an extraction plate of the beverage preparation device, such that the outwardly extending flange of the capsule and at least a portion of the sealing member of the capsule are sealingly engaged between the enclosing member and the closing member of the beverage preparation device, wherein the enclosing member of the beverage preparation device comprises an annular element having a central annular element axis and a free contact end, said free contact end of the annular element optionally being provided with a plurality of radially extending open grooves, the sealing member is integral with the outwardly extending flange and comprises at least one projection projecting from the outwardly extending flange, said at least one projection comprising a projection top, and wherein the at least one projection is configured such that its projection top exerts a radial force on the free contact end of the annular element if the capsule is positioned in the enclosing member of the beverage preparation device and the enclosing member is closed by means of the closing member of the beverage preparation device, wherein the sealing member comprises a further projection projecting from the outwardly extending flange and a plateau between said two projections, wherein the distance between the two projections is such that the free contact end of the annular element is positioned between the two projections if the capsule is positioned in the enclosing member and as the enclosing member is closed by means of the closing member, wherein the sealing member comprises an annular trough between an inner one of the projections and the side characterized in that the plateau is axially spaced from the cover and the annular trough has a bottom axially spaced from the base portion to which base portion the cover is attached, wherein the bottom of the annular through is at a first axial distance from the cover and the plateau is at a second axial distance from the cover, said second axial distance being larger than said first axial distance, and wherein the sealing structure and the remainder of the capsule body are made of the same material.
A method of wireless communication, comprising: grouping , by a base station , two or more unlicensed spectrum component carriers of a plurality of component carriers assigned for communication by the base station to share a common hybrid automatic repeat request, HARQ, process space over multiple component carriers; performing , by the base station , a clear channel access, CCA, check of each of the two or more unlicensed spectrum component carriers; transmitting, by the base station , to one or more user equipments, UEs , served by the base station a HARQ process configuration, wherein the HARQ process configuration includes at least an identification of the two or more unlicensed spectrum component carriers; transmitting , by the base station , the same downlink data over two or more unlicensed spectrum component carriers that clear the CCA check; and receiving , by the base station , in response to the transmitting , HARQ process response information associated with the common HARQ process space. grouping , by a base station , two or more unlicensed spectrum component carriers of a plurality of component carriers assigned for communication by the base station to share a common hybrid automatic repeat request, HARQ, process space over multiple component carriers; performing , by the base station , a clear channel access, CCA, check of each of the two or more unlicensed spectrum component carriers; transmitting, by the base station , to one or more user equipments, UEs , served by the base station a HARQ process configuration, wherein the HARQ process configuration includes at least an identification of the two or more unlicensed spectrum component carriers; transmitting , by the base station , the same downlink data over two or more unlicensed spectrum component carriers that clear the CCA check; and receiving , by the base station , in response to the transmitting , HARQ process response information associated with the common HARQ process space.
A compressor comprising: an electric motor including a stator and a rotor placed on an inner side of the stator ; a compressing mechanism ; and a housing , wherein the stator is fixed to an inner wall of the housing through a plurality of laser welding portions , the plurality of laser welding portions are formed at predetermined distances from one another in a circumferential direction of the housing , the laser welding portions are formed over predetermined lengths, the stator includes a stator core and a winding wire , the stator core is formed by laminating a plurality of metal electromagnetic steel sheets on one another, the stator core includes an annular yoke portion , teeth projecting inward in a radial direction of the yoke portion from the yoke portion , and slots formed between the adjacent teeth , a plurality of gaps which become refrigerant passages are formed in an outer peripheral surface of the yoke portion , and the laser welding portions are formed between the adjacent gaps , characterized in that the laser welding portions are further formed at locations on an outer side in a radial direction of the slots , and that refrigerant passage holes which become additional refrigerant passages are formed between the adjacent gaps and in the yoke portion located on an outer side in a radial direction of the teeth . the stator is fixed to an inner wall of the housing through a plurality of laser welding portions , the plurality of laser welding portions are formed at predetermined distances from one another in a circumferential direction of the housing , the laser welding portions are formed over predetermined lengths, the stator includes a stator core and a winding wire , the stator core is formed by laminating a plurality of metal electromagnetic steel sheets on one another, the stator core includes an annular yoke portion , teeth projecting inward in a radial direction of the yoke portion from the yoke portion , and slots formed between the adjacent teeth , a plurality of gaps which become refrigerant passages are formed in an outer peripheral surface of the yoke portion , and the laser welding portions are formed between the adjacent gaps , characterized in that the laser welding portions are further formed at locations on an outer side in a radial direction of the slots , and that refrigerant passage holes which become additional refrigerant passages are formed between the adjacent gaps and in the yoke portion located on an outer side in a radial direction of the teeth .
A glazed panel device for a building, comprising: - at least one outer glazed wall , - at least one inner glazed wall , - a frame for attaching said outer glazed wall and said inner glazed wall to a structure of said building, said attachment frame forming a cavity between said outer glazed wall and said inner glazed wall , - at least said outer glazed wall being inclined relative to a longitudinal median plane of said device , - said cavity converging toward an edge of said device , - at least one cell communicating with said cavity at said edge and leading to an opening toward the outer wall , said cell being provided with at least one acoustic insulation , characterized in that it comprises: - at least one sound and/or thermal shield , - said at least one shield being installed at the upper and/or lower part of said frame , - said at least one shield being oriented toward the center of said device , according to a slope that flares out relative to said longitudinal median plane of said device . - at least one outer glazed wall , - at least one inner glazed wall , - a frame for attaching said outer glazed wall and said inner glazed wall to a structure of said building, said attachment frame forming a cavity between said outer glazed wall and said inner glazed wall , - at least said outer glazed wall being inclined relative to a longitudinal median plane of said device , - said cavity converging toward an edge of said device , - at least one cell communicating with said cavity at said edge and leading to an opening toward the outer wall , said cell being provided with at least one acoustic insulation , - at least one sound and/or thermal shield , - said at least one shield being installed at the upper and/or lower part of said frame , - said at least one shield being oriented toward the center of said device , according to a slope that flares out relative to said longitudinal median plane of said device .
An image sensor comprising: a pixel array comprising a first pixel (PX1) and a second pixel (PX2) which are connected to a same column line (CL), the first pixel (PX1) comprising N sub-pixels sharing a first floating diffusion node (FD1) and the second pixel (PX2) comprising N sub-pixels sharing a second floating diffusion node (FD2), wherein N is a positive integer greater than or equal to two; a timing generator configured to change a reset order and a readout order of 2N subpixels included in the first pixel (PX1) and the second pixel (PX2), according to an exposure time setting value (CIT), and output a row address according to the changed orders; and a row driver configured to drive the pixel array based on the row address, wherein the timing generator is configured to change the reset order and the readout order of the 2N sub-pixels such that a first sub-pixel (Gr1; Gr1; Gr1) of the first pixel (PX1) is read out and a second sub-pixel (Gr2; Gr2; R2) of the second pixel (PX2) is reset in a first horizontal period (5H; 5H; 5H), and the second sub-pixel (Gr2; Gr2; R2) of the second pixel (PX2) is read out and a third sub-pixel (R1; B1; Gb1) of the first pixel (PX1) is reset in a second horizontal period (6H; 7H; 8H). a pixel array comprising a first pixel (PX1) and a second pixel (PX2) which are connected to a same column line (CL), the first pixel (PX1) comprising N sub-pixels sharing a first floating diffusion node (FD1) and the second pixel (PX2) comprising N sub-pixels sharing a second floating diffusion node (FD2), wherein N is a positive integer greater than or equal to two; a timing generator configured to change a reset order and a readout order of 2N subpixels included in the first pixel (PX1) and the second pixel (PX2), according to an exposure time setting value (CIT), and output a row address according to the changed orders; and a row driver configured to drive the pixel array based on the row address, wherein the timing generator is configured to change the reset order and the readout order of the 2N sub-pixels such that a first sub-pixel (Gr1; Gr1; Gr1) of the first pixel (PX1) is read out and a second sub-pixel (Gr2; Gr2; R2) of the second pixel (PX2) is reset in a first horizontal period (5H; 5H; 5H), and the second sub-pixel (Gr2; Gr2; R2) of the second pixel (PX2) is read out and a third sub-pixel (R1; B1; Gb1) of the first pixel (PX1) is reset in a second horizontal period (6H; 7H; 8H).
Sensor arrangement for an ultrasonic probe comprising emitters and receivers wherein the emitters and receivers are arranged in rows and columns characterized in that the emitters and receivers are arranged in rows of emitters and rows of receivers , wherein the columns are formed from upper emitters , upper receivers , lower receivers and lower emitters , wherein the sensor arrangement comprises electronics configured to excite and receive ultrasonic signals and to measure a velocity of an ultrasonic signal along a number of different signal paths between emitters and receivers, wherein the number of different signal paths comprises axial signal paths and tilted signal paths , wherein the tilted signal paths are tilted compared to the axial signal paths at a tilting +/- angle alpha , the tilting angle al pha being in a range of 30 to 45 °.
Composite body , comprising a pad with a non-adhesive cover filled with a hydrogel-forming absorbent material , and a self-adhesive fastening element for use in covering a catheter port in a body which has a permanent body orifice in the form of a navel which forms the catheter port and which is formed as an output of a neobladder , characterised in that the hydrogel-forming absorbent material is provided for permanent absorption of urine leaking from the body orifice , wherein the pad is provided to be replaceable and the self-adhesive fastening element can be used multiple times. the hydrogel-forming absorbent material is provided for permanent absorption of urine leaking from the body orifice , wherein the pad is provided to be replaceable and the self-adhesive fastening element can be used multiple times.
Device for controlling a shadowing system for a motor vehicle, in which a rear window and/or one or more side windows of the vehicle can be shadowed/shaded, comprising: - a camera system for capturing image data BD1 from the head and/or the posture of a driver of the vehicle, - an evaluation device for evaluating the image data BD1 in order to determine a line of sight BR(t) of the driver, either as a function F of a current pose POSE K (t) of the head determined on the basis of the image data BD1 and/or the posture of the driver BR(t) = F(POSE K (t)), and/or as a function F2 of eye positions AP(t) of the driver BR(t) = F2(AP(t)) determined on the basis of the image data BD1, characterised by - a control unit arranged and designed to control the shadowing system in such a way under the following conditions: - the determined current line of sight BR(t) of the driver amounts to a glance into an interior rear-view mirror of the vehicle or a glance towards the rear window or a glance towards one of the side windows, - a reverse gear of the vehicle is engaged/activated, and - the vehicle is in operation/activated, - that a current shadowing/shading of the rear window and/or a current shadowing/shading of the side window in the line of sight BR(t) of the driver is cancelled/disabled. - a camera system for capturing image data BD1 from the head and/or the posture of a driver of the vehicle, - an evaluation device for evaluating the image data BD1 in order to determine a line of sight BR(t) of the driver, either as a function F of a current pose POSE K (t) of the head determined on the basis of the image data BD1 and/or the posture of the driver BR(t) = F(POSE K (t)), and/or as a function F2 of eye positions AP(t) of the driver BR(t) = F2(AP(t)) determined on the basis of the image data BD1, characterised by - a control unit arranged and designed to control the shadowing system in such a way under the following conditions: - the determined current line of sight BR(t) of the driver amounts to a glance into an interior rear-view mirror of the vehicle or a glance towards the rear window or a glance towards one of the side windows, - a reverse gear of the vehicle is engaged/activated, and - the vehicle is in operation/activated, - the determined current line of sight BR(t) of the driver amounts to a glance into an interior rear-view mirror of the vehicle or a glance towards the rear window or a glance towards one of the side windows, - a reverse gear of the vehicle is engaged/activated, and - the vehicle is in operation/activated, - that a current shadowing/shading of the rear window and/or a current shadowing/shading of the side window in the line of sight BR(t) of the driver is cancelled/disabled.
A method for computing a quantitative network quality metric using at least one latency quality metric, the method comprising: receiving network information for connecting a plurality of initiators and a plurality of targets to a network-on-chip, NoC, having a plurality of switches; determining a shortest path for each initiator-target pair selected from the plurality of initiators and the plurality of targets based on floorplan constraints of the NoC; determining an actual path between each of the initiator-target pairs through the NoC, wherein the network information includes a plurality of definitions for any initiator's and any target's connectivity to the NoC; computing a difference between each of the actual paths and each of the shortest paths for the initiator-target pairs; and generating a visual representation of the computed differences and an average value difference, wherein a visual representation and an average value difference represent the at least one latency quality metric of the NoC's latency for a packet to travel from initiator to target in the initiator-target pair. receiving network information for connecting a plurality of initiators and a plurality of targets to a network-on-chip, NoC, having a plurality of switches; determining a shortest path for each initiator-target pair selected from the plurality of initiators and the plurality of targets based on floorplan constraints of the NoC; determining an actual path between each of the initiator-target pairs through the NoC, wherein the network information includes a plurality of definitions for any initiator's and any target's connectivity to the NoC; computing a difference between each of the actual paths and each of the shortest paths for the initiator-target pairs; and generating a visual representation of the computed differences and an average value difference, wherein a visual representation and an average value difference represent the at least one latency quality metric of the NoC's latency for a packet to travel from initiator to target in the initiator-target pair.
A contact unit, in particular for supplying vehicles with power via an overhead wire , the contact unit comprising a sliding contact device , the sliding contact device having a contact strip support and a contact strip disposed thereon, the contact unit having a steering device for electric arcs which is disposed on the contact unit, the steering device being provided with a magnet , characterized in that the magnet is disposed on a support profile of the contact strip support, wherein an electric arc can be deflected from the support profile and be steered toward the contact strip or be extinguished by means of the magnet.