mhurhangee/ep-ind-claims huggingface dataset:
A photovoltaic module, comprising: a battery layer (140, 240, 340), wherein the battery layer (140, 240, 340) comprises a plurality of battery cells, and the plurality of battery cells are arranged in an array and configured to receive light and generate power; and a thermally conductive layer (130, 230, 330, 407, 503, 605, 702, 804, 906, 1004, 1102, 1204), wherein the thermally conductive layer (130, 230, 330, 407, 503, 605, 702, 804, 906, 1004, 1102, 1204) is formed of a thermally conductive material or contains a thermally conductive material, and is in thermal communication with the battery layer (140, 240, 340), wherein the thermally conductive layer (130, 230, 330, 407, 503, 605, 702, 804, 906, 1004, 1102, 1204) is in a mesh shape and comprises a skeleton section and a hollow section surrounded by the skeleton section; characterized in that the battery cells are double-sided; the skeleton section comprises a plurality of first strip-shaped thermally conductive portions extending in a first direction and a plurality of second strip-shaped thermally conductive portions extending in a second direction intersected with the first direction; the plurality of the first strip-shaped thermally conductive portions and the plurality of the second strip-shaped thermally conductive portions each extend along a gap between adjacent battery cells; and in a thickness direction of the photovoltaic module, at least a part of the skeleton section completely covers the gap between the adjacent battery cells, and the plurality of battery cells completely covers the hollow section. a battery layer (140, 240, 340), wherein the battery layer (140, 240, 340) comprises a plurality of battery cells, and the plurality of battery cells are arranged in an array and configured to receive light and generate power; and a thermally conductive layer (130, 230, 330, 407, 503, 605, 702, 804, 906, 1004, 1102, 1204), wherein the thermally conductive layer (130, 230, 330, 407, 503, 605, 702, 804, 906, 1004, 1102, 1204) is formed of a thermally conductive material or contains a thermally conductive material, and is in thermal communication with the battery layer (140, 240, 340), wherein the thermally conductive layer (130, 230, 330, 407, 503, 605, 702, 804, 906, 1004, 1102, 1204) is in a mesh shape and comprises a skeleton section and a hollow section surrounded by the skeleton section; characterized in that the battery cells are double-sided; the skeleton section comprises a plurality of first strip-shaped thermally conductive portions extending in a first direction and a plurality of second strip-shaped thermally conductive portions extending in a second direction intersected with the first direction; the plurality of the first strip-shaped thermally conductive portions and the plurality of the second strip-shaped thermally conductive portions each extend along a gap between adjacent battery cells; and in a thickness direction of the photovoltaic module, at least a part of the skeleton section completely covers the gap between the adjacent battery cells, and the plurality of battery cells completely covers the hollow section.
A device to be implanted and assembled in a patient comprising a base part being equipped for being anchored in bone tissue with the aid of a first liquefiable material and mechanical vibration, and a based part, being equipped for being connected in situ to the base part either after or at the same time as the base part is anchored in the bone tissue, wherein the two device parts (1, 2) comprise one each of a pair of matched joining locations, of which a first one comprises a second liquefiable material and a second one comprises a non-liquefiable material and a structure which is suitable to form a positive fit connection with the second liquefiable material, and wherein the joining location of the base part is situated on a proximal or lateral side thereof and the joining location of the based part is situated at a distal or lateral side thereof, the device to be implanted and assembled with a method comprising the steps of: providing the base part and the based part of the device anchoring the base part in bone tissue of the patient by positioning it in the bone tissue and coupling mechanical vibration into it for a time sufficient for liquefying at least part of the first liquefiable material and pressing it into the bone tissue, positioning the based part relative to the base part such that the two joining locations (F, S) are in contact with each other and joining the based part to the base part by coupling mechanical vibration into the based part or the base part for a time sufficient for liquefying at least part of the second liquefiable material of the first joining location and letting it to penetrate the structure of the second joining location. providing the base part and the based part of the device anchoring the base part in bone tissue of the patient by positioning it in the bone tissue and coupling mechanical vibration into it for a time sufficient for liquefying at least part of the first liquefiable material and pressing it into the bone tissue, positioning the based part relative to the base part such that the two joining locations (F, S) are in contact with each other and joining the based part to the base part by coupling mechanical vibration into the based part or the base part for a time sufficient for liquefying at least part of the second liquefiable material of the first joining location and letting it to penetrate the structure of the second joining location.
A heat-sealed liquid container comprising a heat-sealable biodegradable packaging material comprising a fibrous substrate and one or more polymer coating layers extruded onto said substrate, characterized in that the packaging material includes, in direct contact to the fibrous substrate, at least one polymer coating layer containing at least 70 weight-% of polylactide and at least 5 weight-% of polybutylene succinate or a derivate thereof.
An adhesive composition comprising a mixture of 5 percent to 50 percent by weight of a chlorinated polymer, 0.5 percent to 45 percent by weight of a nitrogen-containing polymer, elastomer or oligomer, a thermoplastic acrylonitrile copolymer or mixtures thereof, and 25 percent to 90 percent by weight of an alkyl acrylate or methacrylate monomer, and further comprising from 0.01 to 30 percent by weight of a core shell impact modifier.
An apparatus comprising: a processor; and a memory storing thereon a computer program, which when executed by the processor, causes the processor to perform operations including: acquiring an image captured by one monocular camera, determining an object area and a road surface area in the image using semantic segmentation, characterized in that the operations further include: extracting (i) the outline of the determined object area and (ii) the bottom end portion of the outline of the determined object area along the horizontal direction, calculating a variation in the vertical direction of the extracted bottom end portion, dividing the outline of the determined object area or the determined object area based on the calculated variation, and estimating a distance from the monocular camera to an object corresponding to at least one partial object area resulting from the division of the object area or the outline of the object area, the estimating further including: determining whether the partial object area is in contact with the road surface area, wherein the estimating estimates the distance if it is determined that the partial object area is in contact with the road surface area. a processor; and a memory storing thereon a computer program, which when executed by the processor, causes the processor to perform operations including: acquiring an image captured by one monocular camera, determining an object area and a road surface area in the image using semantic segmentation, acquiring an image captured by one monocular camera, determining an object area and a road surface area in the image using semantic segmentation, extracting (i) the outline of the determined object area and (ii) the bottom end portion of the outline of the determined object area along the horizontal direction, calculating a variation in the vertical direction of the extracted bottom end portion, dividing the outline of the determined object area or the determined object area based on the calculated variation, and estimating a distance from the monocular camera to an object corresponding to at least one partial object area resulting from the division of the object area or the outline of the object area, the estimating further including: determining whether the partial object area is in contact with the road surface area, wherein the estimating estimates the distance if it is determined that the partial object area is in contact with the road surface area. determining whether the partial object area is in contact with the road surface area, wherein the estimating estimates the distance if it is determined that the partial object area is in contact with the road surface area.
Size adjuster for helmets for cycling use of the type that can be fixedly connected inside a helmet for cycling use and comprising an annular structure arranged along the lower periphery of said helmet and able to be switched between a minimum diameter configuration and a plurality of increased diameter configurations to allow said helmet to be worn by different sized users, being provided a manual switching device of the configuration of said annular structure, said size adjuster comprises headrest elements for a user connected to said annular structure in a freely orientable manner along at least one axis, characterised in that said annular structure comprises two side arms able to move telescopically with respect to a central portion by acting on said manual switching device; said headrest elements being associated in a moveable manner along opposite side portions of said central portion so as to be able to be fixedly connected in a plurality of positions different distances from said manual switching device.
An optical system comprising: first and second light-emitting diode die sets, each LED die set comprising a plurality of LED dies, the LED dies of each of the first and second LED die sets emitting light beams of a plurality of colors corresponding to the plurality of LED dies; first and second light pipes (44, 94, 70), each comprising an output face (46, 96), an input face (55, 72, 95) configured to receive a light beam, and a body extending from the input face to the output face; first and second light pipe holders configured to hold the first and second light pipes, respectively, in positions optically coupled to the first and second LED die sets, respectively; characterized in that a cross-section of the body of the first light pipe rotates along a central axis extending between the input face and the output face, and in that the input face of each of the first and second light pipes (44, 70, 94) includes an asymmetrical feature and the second light pipe holder is configured to hold the second light pipe with its asymmetrical feature oriented in the same direction as the asymmetrical feature of the first light pipe. first and second light-emitting diode die sets, each LED die set comprising a plurality of LED dies, the LED dies of each of the first and second LED die sets emitting light beams of a plurality of colors corresponding to the plurality of LED dies; first and second light pipes (44, 94, 70), each comprising an output face (46, 96), an input face (55, 72, 95) configured to receive a light beam, and a body extending from the input face to the output face; first and second light pipe holders configured to hold the first and second light pipes, respectively, in positions optically coupled to the first and second LED die sets, respectively; characterized in that a cross-section of the body of the first light pipe rotates along a central axis extending between the input face and the output face, and in that the input face of each of the first and second light pipes (44, 70, 94) includes an asymmetrical feature and the second light pipe holder is configured to hold the second light pipe with its asymmetrical feature oriented in the same direction as the asymmetrical feature of the first light pipe.
A risk potential calculation apparatus comprising: a risk potential calculation unit that calculates a risk potential of an object at each of a plurality of points which are set around a host vehicle, wherein, when there is a second object in a blind spot caused by a first object in a field of view of the host vehicle, the risk potential calculation unit omits the calculation of the risk potential of the second object. a risk potential calculation unit that calculates a risk potential of an object at each of a plurality of points which are set around a host vehicle, wherein, when there is a second object in a blind spot caused by a first object in a field of view of the host vehicle, the risk potential calculation unit omits the calculation of the risk potential of the second object.
A full bridge power conversion device, comprising - a plurality of converter cells connected in series with one another, each comprising two legs of upper and lower arms for converting electric power, and - a detecting portion for detecting whether or not said each of the converter cells is normal, and - each one of the plurality of converter cells, including: - two power terminals (Po, No), - a bypass element electrically coupled between the two power terminals (Po, No), - an electrical energy storage element, and - a series-connected pair of semiconductor devices (21-24, 31-34) arranged in the plurality of upper and lower arms, connected in parallel with the electrical energy storage element and configured to perform electrical power conversion between the two power terminals (Po, No) and the electrical energy storage element, during a normal operation of the converter cell, and - an arm short circuit protection unit included in a gate drive unit, the gate drive unit being adapted for driving the gates of the semiconductor devices (21-24, 31-34), wherein, when abnormality of a particular converter cell is detected, the bypass element of the particular converter cell is set to a close-circuit state, and the semiconductor devices (21-24, 31-34) of at least one of the upper or lower arms of the particular converter cell, that is in parallel with the bypass element are set to a turn on state, and the arm short-circuit protection unit is configured to protect the other arm of the upper or lower arms of the particular converter cell against damage due to a short circuit current. - a plurality of converter cells connected in series with one another, each comprising two legs of upper and lower arms for converting electric power, and - a detecting portion for detecting whether or not said each of the converter cells is normal, and - each one of the plurality of converter cells, including: - two power terminals (Po, No), - a bypass element electrically coupled between the two power terminals (Po, No), - an electrical energy storage element, and - a series-connected pair of semiconductor devices (21-24, 31-34) arranged in the plurality of upper and lower arms, connected in parallel with the electrical energy storage element and configured to perform electrical power conversion between the two power terminals (Po, No) and the electrical energy storage element, during a normal operation of the converter cell, and - an arm short circuit protection unit included in a gate drive unit, the gate drive unit being adapted for driving the gates of the semiconductor devices (21-24, 31-34), wherein,
Industrial truck, in particular counterbalance forklift truck, having a power electronics system which is cooled by means of at least one fan which generates a cooling air flow which cools the power electronics system, and having an oil container of a hydraulic system, characterized in that the oil container is provided with at least one heat sink which is flowed through by the cooling air flow of the fan of the power electronics system, wherein the oil container has a substantially vertically arranged container wall, wherein the at least one heat sink is arranged on the container wall and is flowed through by the cooling air flow of the fan of the power electronics system in a vertical direction from top to bottom, wherein the at least one heat sink is arranged downstream of the power electronics system in the cooling air flow of the fan.
An apparatus for assembling a thermoplastic composite article (130, 806), the apparatus comprising: a robot (104, 204); an end effector (106, 206) coupled to the robot, the end effector including a cutting head (250, 1150), a vacuum head (252, 902, 1152) including a vacuum surface (264, 1164), and a welding head (254, 1154); and wherein the cutting head (250, 1150) is operatively positioned on the end effector (106, 206) in a first direction, the vacuum head (252, 902, 1152) is operatively positioned on the end effector (106, 206) in a second direction different from the first direction, and the welding head (254, 1154) is operatively positioned on the end effector (106, 206) in a third direction different from the first direction and different from the second direction. a robot (104, 204); an end effector (106, 206) coupled to the robot, the end effector including a cutting head (250, 1150), a vacuum head (252, 902, 1152) including a vacuum surface (264, 1164), and a welding head (254, 1154); and wherein the cutting head (250, 1150) is operatively positioned on the end effector (106, 206) in a first direction, the vacuum head (252, 902, 1152) is operatively positioned on the end effector (106, 206) in a second direction different from the first direction, and the welding head (254, 1154) is operatively positioned on the end effector (106, 206) in a third direction different from the first direction and different from the second direction.
A casein phosphopeptide stabilized amorphous calcium phosphate (CPP-ACP) and/or casein phosphopeptide stabilized amorphous calcium fluoride phosphate (CPP-ACFP) for use in a method for - inhibiting oral dysbiosis in an individual in need thereof, - reducing gingival inflammation in an individual in need thereof, - treating gingivitis in an individual in need thereof, - treating chronic gingivitis in an individual in need thereof, or - treating periodontitis in an individual in need thereof, wherein said CPP-ACP and/or CPP-ACFP is administered to the oral cavity of the individual. - inhibiting oral dysbiosis in an individual in need thereof, - reducing gingival inflammation in an individual in need thereof, - treating gingivitis in an individual in need thereof, - treating chronic gingivitis in an individual in need thereof, or - treating periodontitis in an individual in need thereof,
A method performed in a user equipment for requesting a connection setup with a network node, said method comprising: receiving a signal comprising a set of classifying parameters, determining at least one class to which the user equipment belongs to based on the received signal comprising the set of classifying parameters, wherein the user equipment is determined to belong to a class of coverage-limited user equipments based on classifying parameters, receiving a P hysical R andom A ccess CH annel, PRACH, preamble scheme to be used by the user equipment during a connection setup request, said PRACH preamble scheme being associated with the at least one class the user equipment belongs to, and controlling the timing of transmitting request signals for requesting a connection setup with the network node according to the received PRACH preamble scheme indicating where the first and repeated random access attempts occur. receiving a signal comprising a set of classifying parameters, determining at least one class to which the user equipment belongs to based on the received signal comprising the set of classifying parameters, wherein the user equipment is determined to belong to a class of coverage-limited user equipments based on classifying parameters, receiving a P hysical R andom A ccess CH annel, PRACH, preamble scheme to be used by the user equipment during a connection setup request, said PRACH preamble scheme being associated with the at least one class the user equipment belongs to, and controlling the timing of transmitting request signals for requesting a connection setup with the network node according to the received PRACH preamble scheme indicating where the first and repeated random access attempts occur.
A method of using a first client device to receive a call via a mobile device, the mobile device configured to act as host for the call, the method comprising: at the first client device comprising a wireless interface, an output display, and at least one processor coupled to the wireless interface and the output display: receiving, from the mobile device via the wireless interface, a voice invite communication as part of the call, the voice invite communication including a host identifier associated with a user and that identifies the mobile device; comparing the host identifier to a list of known devices of the user from which the first client device is configured to receive calls; providing a call-received interface in response to receiving the voice invite communication and when the host identifier matches at least one of the list of known devices associated with the user; receiving, at the call-received interface, an input to answer the call; establishing a first connection for the call, the first connection providing communication of audio between the first client device and the mobile device; and communicating, to the mobile device, a call answer communication in response to the input to answer the call, the call answer communication comprising a client identifier associated with the first client device and with the user. receiving, from the mobile device via the wireless interface, a voice invite communication as part of the call, the voice invite communication including a host identifier associated with a user and that identifies the mobile device; comparing the host identifier to a list of known devices of the user from which the first client device is configured to receive calls; providing a call-received interface in response to receiving the voice invite communication and when the host identifier matches at least one of the list of known devices associated with the user; receiving, at the call-received interface, an input to answer the call; establishing a first connection for the call, the first connection providing communication of audio between the first client device and the mobile device; and communicating, to the mobile device, a call answer communication in response to the input to answer the call, the call answer communication comprising a client identifier associated with the first client device and with the user.
A method performed in a user equipment for controlling the UE beamforming in a wireless network, comprising: receiving one or more beam reference signals included in a restricted set of useable beam reference signals for adjusting the UE beamforming; receiving one or more beam reference signals outside of the restricted set; determining whether to update the restricted set to include a subset of the one or more beam reference signals outside of the restricted set, based on predetermined criteria; and adjusting the beamforming based on beam reference signals in the restricted set. receiving one or more beam reference signals included in a restricted set of useable beam reference signals for adjusting the UE beamforming; receiving one or more beam reference signals outside of the restricted set; determining whether to update the restricted set to include a subset of the one or more beam reference signals outside of the restricted set, based on predetermined criteria; and adjusting the beamforming based on beam reference signals in the restricted set.