mhurhangee/ep-ind-claims huggingface dataset:
A light emitting diode apparatus comprising: a plurality of substrate layers (10-1,10-2,10-3), each substrate layer of the plurality of substrate layers corresponding to one of a plurality of sub-pixels of a pixel; a heat sink plate provided on a first side of the plurality of substrate layers, the heat sink plate including a patterned area provided between adjacent substrate layers of the plurality of substrate layers; a fluorescent material (30-1, 30-2) provided on the heat sink plate overlapping at least a portion of one of the plurality of substrate layers; and a plurality of light emitting diodes (40-1, 40-2, 40-3), each light emitting diode of the plurality of light emitting diodes being provided on a second side opposite to the first side of each substrate layer, characterized in that: the patterned area of the heat sink plate is black-patterned to prevent lights emitted from the plurality of light emitting diodes (40-1, 40-2, 40-3) and passing through the plurality of substrate layers from mixing with one another. a plurality of substrate layers (10-1,10-2,10-3), each substrate layer of the plurality of substrate layers corresponding to one of a plurality of sub-pixels of a pixel; a heat sink plate provided on a first side of the plurality of substrate layers, the heat sink plate including a patterned area provided between adjacent substrate layers of the plurality of substrate layers; a fluorescent material (30-1, 30-2) provided on the heat sink plate overlapping at least a portion of one of the plurality of substrate layers; and a plurality of light emitting diodes (40-1, 40-2, 40-3), each light emitting diode of the plurality of light emitting diodes being provided on a second side opposite to the first side of each substrate layer, characterized in that: the patterned area of the heat sink plate is black-patterned to prevent lights emitted from the plurality of light emitting diodes (40-1, 40-2, 40-3) and passing through the plurality of substrate layers from mixing with one another. the patterned area of the heat sink plate is black-patterned to prevent lights emitted from the plurality of light emitting diodes (40-1, 40-2, 40-3) and passing through the plurality of substrate layers from mixing with one another.
A battery pack comprising: a case in which a plurality of battery cells are accommodated; and a BMS configured to detect damage to the case, wherein the BMS comprises: a voltage output terminal configured to output a predetermined voltage; a ground terminal; and a voltage measurement terminal configured to measure voltage, wherein the case comprises: a conductive member having one end connected to the voltage output terminal of the BMS and the other end connected to the ground terminal of the BMS; and a sensing wire having one end connected to the conductive member and the other end connected to the voltage measurement terminal of the BMS, wherein the conductive member is provided between one surface inside the case and the other surface opposite to the one surface. a case in which a plurality of battery cells are accommodated; and a BMS configured to detect damage to the case, wherein the BMS comprises: a voltage output terminal configured to output a predetermined voltage; a ground terminal; and a voltage measurement terminal configured to measure voltage, wherein the case comprises: a conductive member having one end connected to the voltage output terminal of the BMS and the other end connected to the ground terminal of the BMS; and a sensing wire having one end connected to the conductive member and the other end connected to the voltage measurement terminal of the BMS, wherein the conductive member is provided between one surface inside the case and the other surface opposite to the one surface. a voltage output terminal configured to output a predetermined voltage; a ground terminal; and a voltage measurement terminal configured to measure voltage, wherein the case comprises: a conductive member having one end connected to the voltage output terminal of the BMS and the other end connected to the ground terminal of the BMS; and a sensing wire having one end connected to the conductive member and the other end connected to the voltage measurement terminal of the BMS, wherein the conductive member is provided between one surface inside the case and the other surface opposite to the one surface. a conductive member having one end connected to the voltage output terminal of the BMS and the other end connected to the ground terminal of the BMS; and a sensing wire having one end connected to the conductive member and the other end connected to the voltage measurement terminal of the BMS, wherein the conductive member is provided between one surface inside the case and the other surface opposite to the one surface.
A method comprising: obtaining, at a computing system, a first set of depth information representing a scene from a first source and a second set of depth information representing the scene from a second source, wherein obtaining comprises: receiving the first set of depth information representing the scene from a single camera, wherein the first set of depth information corresponds to one or more dual pixel images that depict the scene; and receiving the second set of depth information representing the scene from a pair of stereo cameras, wherein the second set of depth information corresponds to one or more sets of stereo images that depict the scene; determining, at the computing system and using a neural network, a joint depth map that conveys respective depths for elements in the scene, wherein the neural network determines the joint depth map based on a combination of the first set of depth information and the second set of depth information; and modifying an image representing the scene based on the joint depth map, wherein modifying comprises applying a partial blur to one or more background portions of the image based on the joint depth map. obtaining, at a computing system, a first set of depth information representing a scene from a first source and a second set of depth information representing the scene from a second source, wherein obtaining comprises: receiving the first set of depth information representing the scene from a single camera, wherein the first set of depth information corresponds to one or more dual pixel images that depict the scene; and receiving the second set of depth information representing the scene from a pair of stereo cameras, wherein the second set of depth information corresponds to one or more sets of stereo images that depict the scene; receiving the first set of depth information representing the scene from a single camera, wherein the first set of depth information corresponds to one or more dual pixel images that depict the scene; and receiving the second set of depth information representing the scene from a pair of stereo cameras, wherein the second set of depth information corresponds to one or more sets of stereo images that depict the scene; determining, at the computing system and using a neural network, a joint depth map that conveys respective depths for elements in the scene, wherein the neural network determines the joint depth map based on a combination of the first set of depth information and the second set of depth information; and modifying an image representing the scene based on the joint depth map, wherein modifying comprises applying a partial blur to one or more background portions of the image based on the joint depth map.
A method for manufacturing a cannula unit, comprising the steps: - in a first step, providing a flexible cannula with an end area (31, 32) that deviates from the shape of the rest of the cannula, wherein the end area has a funnel-like shape or the shape of a flange; - providing a housing with a conical bushing or a seat which corresponds to the flange; and - connecting the end area of the flexible cannula to the conical bushing or the seat of the housing; wherein the end area of the flexible cannula is positively locked to the housing by clamping the end area of the flexible cannula between a first part (21, 211, 213) and a second part (22, 221, 223) of the housing or wherein the end area of the flexible cannula is connected to the housing by crimping. - in a first step, providing a flexible cannula with an end area (31, 32) that deviates from the shape of the rest of the cannula, wherein the end area has a funnel-like shape or the shape of a flange; - providing a housing with a conical bushing or a seat which corresponds to the flange; and - connecting the end area of the flexible cannula to the conical bushing or the seat of the housing;
Method for producing a multi-layer laminate, in particular for producing tube-shaped packaging, with at least one oriented film and at least one barrier layer, wherein the following steps are carried out: - providing at least two, in particular, sealable external films, wherein at least one external film is an oriented external film, or providing two, in particular, sealable external films, and - extruding at least one three-layer extrudate, having a barrier layer material, in the form of an extruded connection layer comprising barriers between the two external films, and wherein the extruded connection layer comprising a barrier is delimited by two external layers which are each directly laminated to the respective external film, characterized in that the external layers are produced from one of more of the materials: polyolefins, in particular polyethylene, polypropylene; modified olefins; copolymers; terpolymers; ionomers; ethylene acrylic acid copolymer; ethylene methacrylic acid; maleic anhydride, and mixtures of the listed materials. - providing at least two, in particular, sealable external films, wherein at least one external film is an oriented external film, or providing two, in particular, sealable external films, and - extruding at least one three-layer extrudate, having a barrier layer material, in the form of an extruded connection layer comprising barriers between the two external films, and
A backlight comprising: an asymmetric diverging wedge defined by a narrow end surface, a wide end surface, and opposing side surfaces (134,136) that are not parallel and extend between the narrow end and the wide end; a light source disposed adjacent to the narrow end surface, the light source emitting light into the diverging wedge; a light guide optically coupled to the wide end surface, the light guide having a light reflection surface and a light emission surface, and one of the opposing side surfaces (134, 136) being co-planar from the narrow end surface to the wide end surface with either the light emission surface or the light reflection surface; characterized by the light source being a solid state light source, and a reflective layer disposed parallel with and adjacent to or on each of the opposing side surfaces (134, 136); wherein the reflective layer is a multilayer polymeric mirror film disposed adjacent to the opposing side surfaces (134, 136) the multilayer polymeric mirror film reflecting more than 95% of visible light incident on the multilayer polymeric mirror film. an asymmetric diverging wedge defined by a narrow end surface, a wide end surface, and opposing side surfaces (134,136) that are not parallel and extend between the narrow end and the wide end; a light source disposed adjacent to the narrow end surface, the light source emitting light into the diverging wedge; a light guide optically coupled to the wide end surface, the light guide having a light reflection surface and a light emission surface, and one of the opposing side surfaces (134, 136) being co-planar from the narrow end surface to the wide end surface with either the light emission surface or the light reflection surface; characterized by the light source being a solid state light source, and a reflective layer disposed parallel with and adjacent to or on each of the opposing side surfaces (134, 136); wherein the reflective layer is a multilayer polymeric mirror film disposed adjacent to the opposing side surfaces (134, 136) the multilayer polymeric mirror film reflecting more than 95% of visible light incident on the multilayer polymeric mirror film.
An adaptive speed data collection method, comprising: initializing a background service on a mobile device, the background service arranged as a state machine; collecting quality of service, QoS, data with the mobile device, the QoS data associated with a wide area network; receiving a plurality of current input variables from a source outside of the background service; retrieving a plurality of previous input variables; comparing ones of the plurality of current input variables with corresponding ones of the plurality of previous input variables; forming asserted triggers based on the comparing; and storing the plurality of current input variables in corresponding memory locations occupied by the plurality of previous input variables, wherein the plurality of current input variables are treated as the plurality of previous input variables in a subsequent cycle of the state machine; determining, by the mobile device, a sample time value based on the asserted triggers and rules applied to the asserted triggers (652, 655); loading an alarm with the sample time value; suspending operation of the background service until the alarm is activated; executing at least two sequential passes through the state machine, the two sequential passes separated by a time duration associated with the sample time value; and modifying the sample time value based on the application of at least one rule to at least one asserted trigger (654,655). initializing a background service on a mobile device, the background service arranged as a state machine; collecting quality of service, QoS, data with the mobile device, the QoS data associated with a wide area network; receiving a plurality of current input variables from a source outside of the background service; retrieving a plurality of previous input variables; comparing ones of the plurality of current input variables with corresponding ones of the plurality of previous input variables; forming asserted triggers based on the comparing; and storing the plurality of current input variables in corresponding memory locations occupied by the plurality of previous input variables, wherein the plurality of current input variables are treated as the plurality of previous input variables in a subsequent cycle of the state machine; determining, by the mobile device, a sample time value based on the asserted triggers and rules applied to the asserted triggers (652, 655); loading an alarm with the sample time value; suspending operation of the background service until the alarm is activated; executing at least two sequential passes through the state machine, the two sequential passes separated by a time duration associated with the sample time value; and modifying the sample time value based on the application of at least one rule to at least one asserted trigger (654,655).
A system for corneal treatment, comprising: a light source configured to activate cross-linking in at least one selected region of a cornea treated with a cross-linking agent, the light source being configured to deliver photoactivating light to the at least one selected region of the cornea according to a set of parameters; and a controller configured to receive input relating to the cross-linking agent and the set of parameters for the delivery of the photoactivating light, the controller including computer-readable storage media storing: a first set of program instructions for determining, from the input, cross-linking resulting from reactions involving reactive oxygen species,ROS, and a second set of program instructions for determining, from the input, cross-linking from reactions not involving oxygen, the controller being configured to execute the first and second sets of program instructions to output a calculated amount of cross-linking in the at least one selected region of the cornea, wherein, in response to the calculated amount of cross-linking output by the controller, the light source is configured to adjust at least one value in the set of parameters for the delivery of the photoactivating light, characterized in that: the ROS associated with the cross-linking determined by the first set of program instructions includes at least peroxides, superoxides, and hydroxyl radicals. a light source configured to activate cross-linking in at least one selected region of a cornea treated with a cross-linking agent, the light source being configured to deliver photoactivating light to the at least one selected region of the cornea according to a set of parameters; and a controller configured to receive input relating to the cross-linking agent and the set of parameters for the delivery of the photoactivating light, the controller including computer-readable storage media storing: a first set of program instructions for determining, from the input, cross-linking resulting from reactions involving reactive oxygen species,ROS, and a second set of program instructions for determining, from the input, cross-linking from reactions not involving oxygen, a first set of program instructions for determining, from the input, cross-linking resulting from reactions involving reactive oxygen species,ROS, and a second set of program instructions for determining, from the input, cross-linking from reactions not involving oxygen, the controller being configured to execute the first and second sets of program instructions to output a calculated amount of cross-linking in the at least one selected region of the cornea, wherein, in response to the calculated amount of cross-linking output by the controller, the light source is configured to adjust at least one value in the set of parameters for the delivery of the photoactivating light, characterized in that: the ROS associated with the cross-linking determined by the first set of program instructions includes at least peroxides, superoxides, and hydroxyl radicals.
A touch-sensitive LED-based lighting fixture, comprising: a flexible light emitting layer (110A, 110B, 110C, 110C1, 110C2, 510) having a plurality of individually controllable LED groups, each of said LED groups including at least one LED (112A1-A4, 112C1, 112C2); a flexible diffusing layer (120A, 120B, 120C) provided over said flexible light emitting layer and diffusing light output generated by said LED groups; a flexible touch-sensitive layer (130A, 530, 120B, 110C); a flexible protective layer (140A, 140B, 140C) provided over said flexible light emitting layer (110A, 110B, 110C, 110C1,110C2, 510), said flexible diffusing layer (120A, 120B, 120C), and said flexible touch-sensitive layer (130A, 530, 120B, 110C); and a controller in electrical communication with said flexible touch-sensitive layer (130A, 530, 120B, 110C) and said flexible light emitting layer (110A, 110B, 110C, 110C1, 110C2, 510), said controller detecting touch events via input from said flexible touch-sensitive layer (130A, 530, 120B, 110C) and directing at least one light output characteristic of said LED groups in correspondence with said touch events. a flexible light emitting layer (110A, 110B, 110C, 110C1, 110C2, 510) having a plurality of individually controllable LED groups, each of said LED groups including at least one LED (112A1-A4, 112C1, 112C2); a flexible diffusing layer (120A, 120B, 120C) provided over said flexible light emitting layer and diffusing light output generated by said LED groups; a flexible touch-sensitive layer (130A, 530, 120B, 110C); a flexible protective layer (140A, 140B, 140C) provided over said flexible light emitting layer (110A, 110B, 110C, 110C1,110C2, 510), said flexible diffusing layer (120A, 120B, 120C), and said flexible touch-sensitive layer (130A, 530, 120B, 110C); and a controller in electrical communication with said flexible touch-sensitive layer (130A, 530, 120B, 110C) and said flexible light emitting layer (110A, 110B, 110C, 110C1, 110C2, 510), said controller detecting touch events via input from said flexible touch-sensitive layer (130A, 530, 120B, 110C) and directing at least one light output characteristic of said LED groups in correspondence with said touch events.
A package for a multi-component medical device comprising a plurality of components, each component comprising and individual element or a subassembly of individual elements, the package comprising: a bottom portion (150, 200, 250) with cavities, each cavity providing individual access to a different component of the medical device, the package being adapted to permit removal of each component from the package in any order without disturbing the remaining component or components; and a barrier affixed to the bottom portion for sealing the package; characterized in that one of the cavities comprises: a first region recessed from an upper surface of the bottom portion; and a second region, concentric with, central to, and recessed from the first region; wherein the second region is recessed further from the upper surface of the bottom portion than the first region. a bottom portion (150, 200, 250) with cavities, each cavity providing individual access to a different component of the medical device, the package being adapted to permit removal of each component from the package in any order without disturbing the remaining component or components; and a barrier affixed to the bottom portion for sealing the package; characterized in that one of the cavities comprises: a first region recessed from an upper surface of the bottom portion; and a second region, concentric with, central to, and recessed from the first region; a first region recessed from an upper surface of the bottom portion; and a second region, concentric with, central to, and recessed from the first region; wherein the second region is recessed further from the upper surface of the bottom portion than the first region.
A medical device delivery system for delivering a medical implant, comprising: a catheter having a proximal end portion and a distal end portion; a handle coupled to the proximal end portion of the catheter; a lock line handle (2310, 3310, 4310, 5310, 6310, 7310) releasably coupled to the handle; a release assembly configured to releasably couple the lock line handle (2310, 3310, 4310, 5310, 6310, 7310) to the handle; and a lock line having a first end portion fixedly coupled to the lock line handle (2310, 3310, 4310, 5310, 6310, 7310), a second end portion releasably coupled to the lock line handle (2310, 3310, 4310, 5310, 6310, 7310); wherein the second end portion is configured to be released from the lock line handle (2310, 3310, 4310, 5310, 6310, 7310) by release of the lock line handle (2310, 3310, 4310, 5310, 6310, 7310) from the handle via operation of the release assembly. a catheter having a proximal end portion and a distal end portion; a handle coupled to the proximal end portion of the catheter; a lock line handle (2310, 3310, 4310, 5310, 6310, 7310) releasably coupled to the handle; a release assembly configured to releasably couple the lock line handle (2310, 3310, 4310, 5310, 6310, 7310) to the handle; and a lock line having a first end portion fixedly coupled to the lock line handle (2310, 3310, 4310, 5310, 6310, 7310), a second end portion releasably coupled to the lock line handle (2310, 3310, 4310, 5310, 6310, 7310); wherein the second end portion is configured to be released from the lock line handle (2310, 3310, 4310, 5310, 6310, 7310) by release of the lock line handle (2310, 3310, 4310, 5310, 6310, 7310) from the handle via operation of the release assembly.