mhurhangee/patent-ind-claim-en huggingface dataset:
A method of testing a sensor unit comprising an image sensor and a local processing module , wherein the local processing module is configured to detect, locally at the sensor unit, whether a person appears in images captured by the image sensor; the method comprising: causing a light-emitting device , external to the sensor unit, to emit a test pattern toward the image sensor of the sensor unit so as to cover at least a substantial portion of the field of view of the image sensor, to be captured over a series of the images captured by the image sensor, the test pattern comprising a spatio-temporal pattern of light simulating presence of a predetermined number of people appearing in view of the image sensor over time, wherein said predetermined number is more than one; at a processing apparatus external to the sensor unit, receiving one or more presence detection reports from the sensor unit indicating an apparent people count detected using the sensor unit, the apparent people count being a number people detected by the local processing module based on the captured images of the test pattern; and reporting the apparent people count to a testing function , wherein testing function compares the apparent people count with the predetermined number of people simulated by the test pattern, and, based on said comparison, determining whether the sensor unit is functioning correctly. causing a light-emitting device , external to the sensor unit, to emit a test pattern toward the image sensor of the sensor unit so as to cover at least a substantial portion of the field of view of the image sensor, to be captured over a series of the images captured by the image sensor, the test pattern comprising a spatio-temporal pattern of light simulating presence of a predetermined number of people appearing in view of the image sensor over time, wherein said predetermined number is more than one; at a processing apparatus external to the sensor unit, receiving one or more presence detection reports from the sensor unit indicating an apparent people count detected using the sensor unit, the apparent people count being a number people detected by the local processing module based on the captured images of the test pattern; and reporting the apparent people count to a testing function , wherein testing function compares the apparent people count with the predetermined number of people simulated by the test pattern, and, based on said comparison, determining whether the sensor unit is functioning correctly.
A compound of the formula (II): wherein, Y is selected from H, OH, halogen, C 1-6 alkyl, C 1-6 alkoxy, amino, -NH(Alkyl), -N(Alkyl) 2 , -NH-aralkyl, -OCH(CH 3 ); R 1 is selected from R 2 is selected from R 3 is selected from H, OH, halogen, C 1-6 alkyl, C 1-6 alkoxy, , amino, -NH(Alkyl), -N(Alkyl) 2 , -NH-aralkyl, -CF3, -OCH(CH 3 ), and pharmaceutically acceptable salts, hydrates and stereoisomers thereof. Y is selected from H, OH, halogen, C 1-6 alkyl, C 1-6 alkoxy, amino, -NH(Alkyl), -N(Alkyl) 2 , -NH-aralkyl, -OCH(CH 3 ); R 1 is selected from R 2 is selected from R 3 is selected from H, OH, halogen, C 1-6 alkyl, C 1-6 alkoxy, , amino, -NH(Alkyl), -N(Alkyl) 2 , -NH-aralkyl, -CF3, -OCH(CH 3 ), and pharmaceutically acceptable salts, hydrates and stereoisomers thereof.
A system on a chip (SoC 102) configured to communicate with a host system , the SoC comprising: a server compute subsystem for providing compute services, the server compute subsystem comprising dedicated memory resources for the server compute subsystem including one or more memory controllers, Level 1 caches, Level 2 caches or Level 3 caches, wherein the dedicated memory resources for the server compute subsystem are communicatively coupled to a server compute subsystem coherent interconnect network ; a network compute subsystem for managing network traffic for the host system and the server compute subsystem , the network compute subsystem comprising dedicated memory resources for the network compute subsystem including one or more memory controllers, Level 1 caches, Level 2 caches or Level 3 caches, wherein the dedicated memory resources for the network compute subsystem are communicatively coupled to a network compute subsystem coherent interconnect network ; a management compute subsystem for managing resources for the server compute subsystem and the network compute subsystem and determining which computing service tasks are to be offloaded to the server compute subsystem by identifying the computer service tasks that are tagged and forwarding those tagged computer service tasks to the sever computer subsystem ; and one or more resources shared by the server compute subsystem and the network compute subsystem . a server compute subsystem for providing compute services, the server compute subsystem comprising dedicated memory resources for the server compute subsystem including one or more memory controllers, Level 1 caches, Level 2 caches or Level 3 caches, wherein the dedicated memory resources for the server compute subsystem are communicatively coupled to a server compute subsystem coherent interconnect network ; a network compute subsystem for managing network traffic for the host system and the server compute subsystem , the network compute subsystem comprising dedicated memory resources for the network compute subsystem including one or more memory controllers, Level 1 caches, Level 2 caches or Level 3 caches, wherein the dedicated memory resources for the network compute subsystem are communicatively coupled to a network compute subsystem coherent interconnect network ; a management compute subsystem for managing resources for the server compute subsystem and the network compute subsystem and determining which computing service tasks are to be offloaded to the server compute subsystem by identifying the computer service tasks that are tagged and forwarding those tagged computer service tasks to the sever computer subsystem ; and one or more resources shared by the server compute subsystem and the network compute subsystem .
A computer-implemented method for rendering, with a processor, a simulated ultrasound image, the method comprising: - Identifying, for an incoming ray started from a transducer element, the ray hitting a geometric surface on a 3D anatomical model at a geometric intersection point P T0 , at least one variable surface parameter as a property of the underlying anatomy object tissue to characterize the surface as a partially diffuse surface; - Calculating multiple ray-tracing paths from multiple intersection points P T distributed as a function of the variable surface parameter below or above the geometric intersection point P T0 , with a stochastic ray-tracing method; - Rendering the ultrasound image by combining one or more contributions from the calculated multiple ray tracing paths, wherein at least one variable surface parameter is a variable surface thickness parameter or a variable surface roughness parameter. - Identifying, for an incoming ray started from a transducer element, the ray hitting a geometric surface on a 3D anatomical model at a geometric intersection point P T0 , at least one variable surface parameter as a property of the underlying anatomy object tissue to characterize the surface as a partially diffuse surface; - Calculating multiple ray-tracing paths from multiple intersection points P T distributed as a function of the variable surface parameter below or above the geometric intersection point P T0 , with a stochastic ray-tracing method; - Rendering the ultrasound image by combining one or more contributions from the calculated multiple ray tracing paths, wherein at least one variable surface parameter is a variable surface thickness parameter or a variable surface roughness parameter.
A test piece analyzer that analyzes a test piece using a captured image of the test piece provided with reagent pads, the test piece analyzer comprising: a test piece holder with a mounting part (MP) for mounting a test piece (TP); and an imaging unit , wherein the imaging unit sequentially images the test piece (TP) along a longitudinal direction of the mounting part (MP), the test piece analyzer further comprising: a transport unit having the test piece holder , and being configured to transport the test piece (TP) from a first position to a second position by moving the test piece holder along a lateral direction (X) of the mounting part (MP), wherein the test piece holder comprises: a bottom plate , and pair of side plates extending from both side edges of the bottom plate ; wherein the mounting part (MP) is an area between the pair of side plates ; the imaging unit is configured so that a width (W1) of an imaging area is larger than a width of the mounting part (MP) in the lateral direction (X); and a length of the imaging area of the imaging unit in the longitudinal direction (Y) of the mounting part (MP) is set smaller than a length of the test piece (TP). a test piece holder with a mounting part (MP) for mounting a test piece (TP); and an imaging unit , wherein the imaging unit sequentially images the test piece (TP) along a longitudinal direction of the mounting part (MP), the test piece analyzer further comprising: a transport unit having the test piece holder , and being configured to transport the test piece (TP) from a first position to a second position by moving the test piece holder along a lateral direction (X) of the mounting part (MP), wherein the test piece holder comprises: a bottom plate , and pair of side plates extending from both side edges of the bottom plate ; wherein the mounting part (MP) is an area between the pair of side plates ; the imaging unit is configured so that a width (W1) of an imaging area is larger than a width of the mounting part (MP) in the lateral direction (X); and a length of the imaging area of the imaging unit in the longitudinal direction (Y) of the mounting part (MP) is set smaller than a length of the test piece (TP).
A parking assistance apparatus comprising: a processor configured to extract a parking space (PS) from a surrounding image of a vehicle and to generate an image having a target parking position (Ti) in overlap with the parking space (PS), the surrounding image being captured by an imaging apparatus provided in the vehicle ; and a memory configured to store history information associating a parking position of the vehicle with the parking space (PS); wherein the processor is configured to adjust a position of the target parking position (Ti) in the image on the basis of statistical processing of the history information, characterized in that statistical processing is executed on a plurality of deviation rates (R), calculated by the processor and stored in the memory as the history information, which respectively indicate the extent to which a past parking position of the vehicle deviates from the center of the parking space (PS). a processor configured to extract a parking space (PS) from a surrounding image of a vehicle and to generate an image having a target parking position (Ti) in overlap with the parking space (PS), the surrounding image being captured by an imaging apparatus provided in the vehicle ; and a memory configured to store history information associating a parking position of the vehicle with the parking space (PS); wherein the processor is configured to adjust a position of the target parking position (Ti) in the image on the basis of statistical processing of the history information, characterized in that statistical processing is executed on a plurality of deviation rates (R), calculated by the processor and stored in the memory as the history information, which respectively indicate the extent to which a past parking position of the vehicle deviates from the center of the parking space (PS).
A sealed package (2; 102; 202; 302) containing a medical device (4; 160, 170; 260, 270) that has a predefined centre of mass, the package (2; 102; 202; 302) comprising: a cavity (6; 106; 206; 306) containing the device (4; 160, 170; 260, 270); a removable backing (8; 108; 208; 308) that seals the device (4; 160, 170; 260, 270) inside the cavity (6; 106; 206; 306); characterised in that the sealed package further comprises: a fulcrum (32; 132; 232) within the cavity (6; 106; 206; 306), defined as a point of contact between the device (4; 160, 170; 260, 270) and a wall of the cavity (6; 106; 206; 306), the fulcrum (32; 132; 232) being positioned such that the predefined centre of mass of the device (4; 160, 170; 260, 270) is in a forward direction relative to the fulcrum (32; 132; 232) so that the device (4; 160, 170; 260, 270) tends to pivot about the fulcrum (32; 132; 232) into a stable position; and a front pocket (10; 110; 210; 310) formed in the cavity (6; 106; 206; 306) which extends in said forward direction and below the fulcrum (32; 132; 232) to receive a front end of the device (4; 160, 170; 260, 270) when the device (4; 160, 170; 260, 270) is free to pivot into a stable position. a cavity (6; 106; 206; 306) containing the device (4; 160, 170; 260, 270); a removable backing (8; 108; 208; 308) that seals the device (4; 160, 170; 260, 270) inside the cavity (6; 106; 206; 306); characterised in that the sealed package further comprises: a fulcrum (32; 132; 232) within the cavity (6; 106; 206; 306), defined as a point of contact between the device (4; 160, 170; 260, 270) and a wall of the cavity (6; 106; 206; 306), the fulcrum (32; 132; 232) being positioned such that the predefined centre of mass of the device (4; 160, 170; 260, 270) is in a forward direction relative to the fulcrum (32; 132; 232) so that the device (4; 160, 170; 260, 270) tends to pivot about the fulcrum (32; 132; 232) into a stable position; and a front pocket (10; 110; 210; 310) formed in the cavity (6; 106; 206; 306) which extends in said forward direction and below the fulcrum (32; 132; 232) to receive a front end of the device (4; 160, 170; 260, 270) when the device (4; 160, 170; 260, 270) is free to pivot into a stable position. a fulcrum (32; 132; 232) within the cavity (6; 106; 206; 306), defined as a point of contact between the device (4; 160, 170; 260, 270) and a wall of the cavity (6; 106; 206; 306), the fulcrum (32; 132; 232) being positioned such that the predefined centre of mass of the device (4; 160, 170; 260, 270) is in a forward direction relative to the fulcrum (32; 132; 232) so that the device (4; 160, 170; 260, 270) tends to pivot about the fulcrum (32; 132; 232) into a stable position; and a front pocket (10; 110; 210; 310) formed in the cavity (6; 106; 206; 306) which extends in said forward direction and below the fulcrum (32; 132; 232) to receive a front end of the device (4; 160, 170; 260, 270) when the device (4; 160, 170; 260, 270) is free to pivot into a stable position.
A method for producing an atom trap comprising the steps: (a) depositing an electrically conductive starting layer onto a substrate , (b) depositing at least one electric conductor element to the starting layer by means of electro-chemical deposition and/or a lift-off method, (c) depositing at least one contacting element by means of electro-chemical deposition and/or a lift-off method, such that the at least one contacting element is connected to the at least one electric conductor element in an electrically conductive manner, (d) removing the starting layer in regions in which no electric conductor element has been applied, (e) depositing an insulation layer that at least partially covers the at least one electric conductor element and the at least one contacting element , (f) planarizing the insulation layer and exposing the at least one contacting element , and (g) depositing at least one additional electric conductor element by means of electro-chemical deposition and/or a lift-off method, such that the at least one additional electric conductor element is connected to the at least one contacting element in an electrically conductive manner. (a) depositing an electrically conductive starting layer onto a substrate , (b) depositing at least one electric conductor element to the starting layer by means of electro-chemical deposition and/or a lift-off method, (c) depositing at least one contacting element by means of electro-chemical deposition and/or a lift-off method, such that the at least one contacting element is connected to the at least one electric conductor element in an electrically conductive manner, (d) removing the starting layer in regions in which no electric conductor element has been applied, (e) depositing an insulation layer that at least partially covers the at least one electric conductor element and the at least one contacting element , (f) planarizing the insulation layer and exposing the at least one contacting element , and (g) depositing at least one additional electric conductor element by means of electro-chemical deposition and/or a lift-off method, such that the at least one additional electric conductor element is connected to the at least one contacting element in an electrically conductive manner.
Battery module , comprising: a housing made of an electrically insulating material with several compartments , intermediate walls separating adjacent compartments and electrode assemblies arranged in the compartments , wherein the intermediate walls are made of at least one electrically conducting material, wherein electrodes of the electrode assemblies are electrically connected to the intermediate walls , characterized in that wherein the intermediate walls are shaped in a T-form or in a L-form, the intermediate walls are inserted into the material of the housing , such that the edges of the intermediate walls are surrounded by the material of the housing , wherein the intermediate walls comprise at least a first layer made of copper and a second layer made of aluminium, each layer of the intermediate walls is bent perpendicularly, such that a vertical part of the layer separates two adjacent compartments , and that a horizontal part of the layer borders on only one compartment , the first layer of each intermediate wall is electrically connected to the anode of an adjacent electrode assembly via a negative connecting element and the second layer of each intermediate wall is electrically connected to the cathode of an adjacent electrode assembly via a positive connecting element , the intermediate layers extend into a bottom plate of a base body of the housing . a housing made of an electrically insulating material with several compartments , intermediate walls separating adjacent compartments and electrode assemblies arranged in the compartments , wherein the intermediate walls are made of at least one electrically conducting material, wherein electrodes of the electrode assemblies are electrically connected to the intermediate walls , characterized in that wherein the intermediate walls are shaped in a T-form or in a L-form, the intermediate walls are inserted into the material of the housing , such that the edges of the intermediate walls are surrounded by the material of the housing , wherein the intermediate walls comprise at least a first layer made of copper and a second layer made of aluminium, each layer of the intermediate walls is bent perpendicularly, such that a vertical part of the layer separates two adjacent compartments , and that a horizontal part of the layer borders on only one compartment , the first layer of each intermediate wall is electrically connected to the anode of an adjacent electrode assembly via a negative connecting element and the second layer of each intermediate wall is electrically connected to the cathode of an adjacent electrode assembly via a positive connecting element , the intermediate layers extend into a bottom plate of a base body of the housing .
A tyre presenting a circumferential direction (C), a radial direction (R) and a transversal direction (T) including an external tread portion (P) which comprises at least a tread block (a), said tread block (a) comprising a plurality of lateral perimetral walls , wherein: at least a portion of an external surface of one of said perimetral walls bears a 3-dimensional pattern of recesses and/or protrusions , wherein said recesses and/or protrusions alternate to each other according to at least two spatial directions (x, y) of the same external surface , characterized in that said 3-dimensional pattern of alternating recesses and/or protrusions is realized by means of a wavy generatrix (G) swept along a wavy directrix (D), said generatrix (G) and directrix (D) each comprising crest points , which are most external points of a respective external surface , and trough points , which are most internal points of said respective external surface . at least a portion of an external surface of one of said perimetral walls bears a 3-dimensional pattern of recesses and/or protrusions , wherein said recesses and/or protrusions alternate to each other according to at least two spatial directions (x, y) of the same external surface , characterized in that said 3-dimensional pattern of alternating recesses and/or protrusions is realized by means of a wavy generatrix (G) swept along a wavy directrix (D), said generatrix (G) and directrix (D) each comprising crest points , which are most external points of a respective external surface , and trough points , which are most internal points of said respective external surface .
A first network-side device , comprising: a determining unit , configured to determine a status of a data service switch of user equipment, UE, wherein the UE is user equipment already registered with a network, and the status of the data service switch comprises that the data service switch is turned on or that the data service switch is turned off, wherein the data service switch is used to enable or disable data service functions of the UE; and a first sending unit , configured to send a first notification message to a second network-side device if the determining unit determines that the data service switch of the UE is turned off, wherein the first notification message comprises first instruction information and an identity of the UE, the first instruction information is used to instruct the second network-side device to skip charging for data packets of the UE flowing through the second network-side device, and the data packets of the UE comprise downlink data packets, or uplink data packets and downlink data packets, wherein an uplink data packet is a data packet sent from the UE to a network side, and downlink data packets are data packets are data packets sent by a network side to the UE. a determining unit , configured to determine a status of a data service switch of user equipment, UE, wherein the UE is user equipment already registered with a network, and the status of the data service switch comprises that the data service switch is turned on or that the data service switch is turned off, wherein the data service switch is used to enable or disable data service functions of the UE; and a first sending unit , configured to send a first notification message to a second network-side device if the determining unit determines that the data service switch of the UE is turned off, wherein the first notification message comprises first instruction information and an identity of the UE, the first instruction information is used to instruct the second network-side device to skip charging for data packets of the UE flowing through the second network-side device, and the data packets of the UE comprise downlink data packets, or uplink data packets and downlink data packets, wherein an uplink data packet is a data packet sent from the UE to a network side, and downlink data packets are data packets are data packets sent by a network side to the UE.