mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a thermally expandable base material for vehicle interior, comprising: needling a web comprising an inorganic fiber, a thermoplastic resin fiber, and a thermally expandable microcapsule to form a fiber mat ; heating said fiber mat at a temperature at which said thermoplastic resin fiber is melt but which is lower than the thermal expansion starting temperature of said thermally expandable microcapsule; hot-pressing said fiber mat; and cooling said fiber mat, wherein said web is fabricated by forming a first web comprising said inorganic fiber and said thermoplastic resin fiber, distributing said thermally expandable microcapsule over said first web , and then laminating a second web comprising said inorganic fiber and said thermoplastic resin fiber to said first web on a side having said thermally expandable capsule, wherein said thermally expandable microcapsule are distributed after static electricity removal. needling a web comprising an inorganic fiber, a thermoplastic resin fiber, and a thermally expandable microcapsule to form a fiber mat ; heating said fiber mat at a temperature at which said thermoplastic resin fiber is melt but which is lower than the thermal expansion starting temperature of said thermally expandable microcapsule; hot-pressing said fiber mat; and cooling said fiber mat, wherein said web is fabricated by forming a first web comprising said inorganic fiber and said thermoplastic resin fiber, distributing said thermally expandable microcapsule over said first web , and then laminating a second web comprising said inorganic fiber and said thermoplastic resin fiber to said first web on a side having said thermally expandable capsule, wherein said thermally expandable microcapsule are distributed after static electricity removal.
A data transmission device mounted in a moving object, comprising: a wireless communication unit performing wireless communication with an external communication device; a data storage unit storing data to be transmitted from the wireless communication unit; a travel route information acquisition unit acquiring a future travel route of the moving object; a propagation environment information acquisition unit acquiring propagation environment information of a radio wave propagation path used in the wireless communication on the travel route; a speed information acquisition unit acquiring a moving speed of the moving object; a converter converting a relationship between the travel route and the propagation environment information into a plurality of data slots each defined by a communication speed per unit time based on the moving speed; an allocation unit allocating the data to at least one of the data slots in an order from a data slot among the at least one of the data slots having a highest communication speed; and a transmission instruction unit instructing the wireless communication unit to transmit the data allocated to a data slot among the at least one of the data slots that corresponds to a current time. a wireless communication unit performing wireless communication with an external communication device; a data storage unit storing data to be transmitted from the wireless communication unit; a travel route information acquisition unit acquiring a future travel route of the moving object; a propagation environment information acquisition unit acquiring propagation environment information of a radio wave propagation path used in the wireless communication on the travel route; a speed information acquisition unit acquiring a moving speed of the moving object; a converter converting a relationship between the travel route and the propagation environment information into a plurality of data slots each defined by a communication speed per unit time based on the moving speed; an allocation unit allocating the data to at least one of the data slots in an order from a data slot among the at least one of the data slots having a highest communication speed; and a transmission instruction unit instructing the wireless communication unit to transmit the data allocated to a data slot among the at least one of the data slots that corresponds to a current time.
One or more computer-storage media having computer executable instructions embodied thereon that when executed by a computing device perform a method of playing a video game using three-dimensional image data as a control input in a server based gaming environment, the method comprising: receiving (71 0), at a game client, three-dimensional image data as a video game control input; process, at the game client, the three-dimensional image data input to generate a basic control input; communicate through a communications network the basic control input from the game client over the computer network to a game server on which the video game is running; process, at the game client, part of the three-dimensional image data input to generate a client-rendered video game feature; receive, through the communications network over the computer network at the game client, a server-rendered video game image from the game server on which the video game is running, the server-rendered video game image being generated in response to a change in game state caused by the basic control input; generating , at the game client, a composite video game image by combining the server-rendered video game image generated by the game server in response to the three-dimensional image data input with the client-rendered video game feature; and output the rendered composite video to a display device; wherein a roundtrip duration is processed to determine if the rendered image is generated at the client or server based on a latency sensitivity rating. receiving (71 0), at a game client, three-dimensional image data as a video game control input; process, at the game client, the three-dimensional image data input to generate a basic control input; communicate through a communications network the basic control input from the game client over the computer network to a game server on which the video game is running; process, at the game client, part of the three-dimensional image data input to generate a client-rendered video game feature; receive, through the communications network over the computer network at the game client, a server-rendered video game image from the game server on which the video game is running, the server-rendered video game image being generated in response to a change in game state caused by the basic control input; generating , at the game client, a composite video game image by combining the server-rendered video game image generated by the game server in response to the three-dimensional image data input with the client-rendered video game feature; and output the rendered composite video to a display device; wherein a roundtrip duration is processed to determine if the rendered image is generated at the client or server based on a latency sensitivity rating.
A transmission device for transmitting a data stream, the transmission device comprising: an encoder configured to generate a plurality of coded blocks, each of the coded blocks being an N-bit sequence generated from a K-bit information bit sequence including a part of the data stream, where K and N are each an integer greater than or equal to 1; a bit interleaver configured to perform, for each of the coded blocks, permutation of bits therein; a bit adjuster configured to add a known bit sequence to each of the permuted coded blocks to generate a plurality of bit-adjusted bit sequences; a mapper configured to modulate the plurality of bit-adjusted bit sequences by using a first modulation scheme selected from among a plurality of modulation schemes to generate a plurality of modulation symbols; and a transmitter configured to transmit a frame signal including the plurality of modulation symbols, wherein a modulation symbol of the first modulation scheme is generated from X bits, where X is an integer greater than or equal to 1 and N is not an integral multiple of X, and the known bit sequence is a sequence of known bits composed of L bits, where L is an integer and N + L is an integral multiple of X. an encoder configured to generate a plurality of coded blocks, each of the coded blocks being an N-bit sequence generated from a K-bit information bit sequence including a part of the data stream, where K and N are each an integer greater than or equal to 1; a bit interleaver configured to perform, for each of the coded blocks, permutation of bits therein; a bit adjuster configured to add a known bit sequence to each of the permuted coded blocks to generate a plurality of bit-adjusted bit sequences; a mapper configured to modulate the plurality of bit-adjusted bit sequences by using a first modulation scheme selected from among a plurality of modulation schemes to generate a plurality of modulation symbols; and a transmitter configured to transmit a frame signal including the plurality of modulation symbols, wherein a modulation symbol of the first modulation scheme is generated from X bits, where X is an integer greater than or equal to 1 and N is not an integral multiple of X, and the known bit sequence is a sequence of known bits composed of L bits, where L is an integer and N + L is an integral multiple of X.
A resource scheduling method for a vehicle infrastructure cooperative communication system, comprising the steps of: receiving node position information from nodes of the vehicle infrastructure cooperative communication system; calculating a distance between any two nodes among the nodes of the vehicle infrastructure cooperative communication system in accordance with the node position information, and determining a movement trend between the nodes, the movement trend indicating that the distance decreases, remains unchanged or increases; in the case that the movement trend indicates that the distance decreases or increases, determining whether or not spatial-multiplexed time-frequency resources are to be used for the nodes in accordance with the distance between the nodes and the movement trend, so as to acquire a determination result, and in the case that the movement trend indicates that the distance remains unchanged, maintaining the time-frequency resources currently allocated for a first node and a second node; and allocating available time-frequency resources for the nodes in accordance with the determination result. receiving node position information from nodes of the vehicle infrastructure cooperative communication system; calculating a distance between any two nodes among the nodes of the vehicle infrastructure cooperative communication system in accordance with the node position information, and determining a movement trend between the nodes, the movement trend indicating that the distance decreases, remains unchanged or increases; in the case that the movement trend indicates that the distance decreases or increases, determining whether or not spatial-multiplexed time-frequency resources are to be used for the nodes in accordance with the distance between the nodes and the movement trend, so as to acquire a determination result, and in the case that the movement trend indicates that the distance remains unchanged, maintaining the time-frequency resources currently allocated for a first node and a second node; and allocating available time-frequency resources for the nodes in accordance with the determination result.
Fibre composite plastic component comprising a fibre mat arrangement embedded in a plastic matrix, wherein at least one connection element is arranged, which comprises a disc with an outer peripheral region, which delimits an inner connecting region, wherein the outer peripheral region is provided with reinforcement fibres, which extend outward in the form of projecting fibre threads or fibre thread bundles and whose fibre threads are arranged in at least one fibre mat and/or between two fibre mats, characterised in that at least two fibre mats, in which at least one connection element is inserted, which comprises a disc with an outer peripheral region, which delimits an inner connecting region, wherein the outer peripheral region is provided with reinforcement fibres, which extend outward in the form of projecting fibre threads or fibre thread bundles , at a distance and/or two fibre mat arrangements on top of one another are embedded in a plastic matrix, which fibre mats or fibre mat arrangements each have at least one connection element , whose connecting region has a bore, wherein the bores of the at least one connection element of at least two fibre mats or fibre mat arrangements are mutually aligned and wherein a spacer element is guided through the mutually aligned bores of the connection elements of the fibre mats or the fibre mat arrangements in such a manner that the connection element of each fibre mat or fibre mat arrangement rests on the outer surface of the spacer element at a distance from one another, wherein the outer surface of the spacer element is preferably at least partially conical and/or stepped.
Press pad of a hydraulic press, the pad made from a fabric comprising warp threads and/or weft threads made from extruded silicone rubber that is crosslinked after extrusion, the silicone rubber comprising a fluor rubber portion, characterized in that the warp threads and/or the weft threads include the fluor rubber portion exclusively on their surface.
Method for CT imaging of an examination area influenced by a swallowing movement of a patient (P), comprising the steps of: - recording CT raw data (RD) of the examination area, - detecting different movement phases of the swallowing movement, wherein an image metric (IM) is defined, which is sensitive and specific to the swallowing movement, and the different movement phases are assigned to different values of the image metric (IM), - determining different raw data sets of the recorded CT raw data (RD) assigned to different detected movement phases based on the detected movement phases, wherein the raw data sets (RD) are determined and assigned to different movement phases based on different values of the image metric (IM), - reconstructing for each of the determined raw data sets an individual CT image (ID) assigned to an individual movement phase. - recording CT raw data (RD) of the examination area, - detecting different movement phases of the swallowing movement, wherein an image metric (IM) is defined, which is sensitive and specific to the swallowing movement, and the different movement phases are assigned to different values of the image metric (IM), - determining different raw data sets of the recorded CT raw data (RD) assigned to different detected movement phases based on the detected movement phases, wherein the raw data sets (RD) are determined and assigned to different movement phases based on different values of the image metric (IM), - reconstructing for each of the determined raw data sets an individual CT image (ID) assigned to an individual movement phase.
An expiratory valve of a ventilation device , comprising a valve body having a fluid inlet and a fluid outlet for breathing air of a patient formed therein, said valve body having at least one reinforcing rib formed around the fluid inlet ; wherein the at least one reinforcing rib extends outwardly with respect to an edge of the fluid inlet ; wherein the valve body forms a cup-shaped valve plenum into which the fluid inlet opens, said cup-shaped valve plenum being at least partly enclosed by the valve body on its bottom side; wherein the valve body forms a valve bottom which at least partly encloses the valve plenum , said valve bottom extending in dish-like manner between the fluid inlet and an outer edge of the valve plenum , characterized in that the valve bottom extends in a flat to flat conical manner between its inner edge and its outer edge; and that the at least one reinforcing rib comprises a first reinforcing rib extending outwardly from the edge of the fluid inlet along the valve bottom . a valve body having a fluid inlet and a fluid outlet for breathing air of a patient formed therein, said valve body having at least one reinforcing rib formed around the fluid inlet ; wherein the at least one reinforcing rib extends outwardly with respect to an edge of the fluid inlet ; wherein the valve body forms a cup-shaped valve plenum into which the fluid inlet opens, said cup-shaped valve plenum being at least partly enclosed by the valve body on its bottom side; wherein the valve body forms a valve bottom which at least partly encloses the valve plenum , said valve bottom extending in dish-like manner between the fluid inlet and an outer edge of the valve plenum , characterized in that the valve bottom extends in a flat to flat conical manner between its inner edge and its outer edge; and that the at least one reinforcing rib comprises a first reinforcing rib extending outwardly from the edge of the fluid inlet along the valve bottom .
Movable fall-prevention device for a securing support , comprising a main body having a passage for the insertion/removal of the securing support in/from a restraining groove , wherein said securing support is restrained through a lever rotating between an open position and a closed position, and wherein one of the lever ends comprises a locking cam and the other free end comprises a hole intended to receive a karabiner , the device further comprising a stop movable between an operative position, in which it limits the rotation of the lever in an intermediate position when the lever is moved from the closed position to the open position, and a release position in which it allows the rotation of the lever in the open position, characterized in that said lever comprises at least one abutment surface cooperating, in said intermediate position, with at least one corresponding engaging surface of the stop to lock the stop to the operative position, wherein said abutment surface is tilted by an angle (α) substantially comprised between 90° and 135° with respect to the movement path (T) of the stop from the operative position towards the release position.
A server computing device, comprising a processor configured to: receive a plurality of input streams from a respective plurality of client computing devices, each input stream including a plurality of inputs controlling actions of respective characters in a multiplayer online software program; determine a latency of each of the input streams based on detecting whether inputs were received from each of the input streams at a target input frequency; identify a higher latency input stream and a lower latency input stream among the plurality of input streams, wherein the higher latency input stream is identified based on detecting that there are missed inputs in the higher latency input stream according to the target input frequency; and induce a higher latency in the lower latency input stream to narrow a difference in latency between the higher latency input stream and the lower latency input stream. receive a plurality of input streams from a respective plurality of client computing devices, each input stream including a plurality of inputs controlling actions of respective characters in a multiplayer online software program; determine a latency of each of the input streams based on detecting whether inputs were received from each of the input streams at a target input frequency; identify a higher latency input stream and a lower latency input stream among the plurality of input streams, wherein the higher latency input stream is identified based on detecting that there are missed inputs in the higher latency input stream according to the target input frequency; and induce a higher latency in the lower latency input stream to narrow a difference in latency between the higher latency input stream and the lower latency input stream.
A method for combining cell cores, the method comprises: acquiring capacities and states of charge of N cell cores; and generating an initial battery pack population for the N cell cores according to different combinations of cell cores, the battery pack population comprising L members, each of the members comprising M battery packs, and each of the battery packs comprising P modules, each of the modules comprising K cell cores, N=M*P*K; characterized in that the method further comprises: generating a new battery pack population iteratively using a genetic algorithm according to following steps until a last generation battery pack population that meets a preset condition is obtained; calculating minimum capacity of all of the members according to the capacity and state of charge of each of the cell cores in the battery pack population; sorting the members on a basis of the minimum capacity of the members in the battery pack population and generating a new battery pack population according to sorting results; and combining the cell cores into target modules and combining the target modules into a target battery pack according to combination of the cell cores of the target members in the last generation battery pack population. acquiring capacities and states of charge of N cell cores; and generating an initial battery pack population for the N cell cores according to different combinations of cell cores, the battery pack population comprising L members, each of the members comprising M battery packs, and each of the battery packs comprising P modules, each of the modules comprising K cell cores, N=M*P*K; characterized in that the method further comprises: generating a new battery pack population iteratively using a genetic algorithm according to following steps until a last generation battery pack population that meets a preset condition is obtained; calculating minimum capacity of all of the members according to the capacity and state of charge of each of the cell cores in the battery pack population; sorting the members on a basis of the minimum capacity of the members in the battery pack population and generating a new battery pack population according to sorting results; and combining the cell cores into target modules and combining the target modules into a target battery pack according to combination of the cell cores of the target members in the last generation battery pack population. generating a new battery pack population iteratively using a genetic algorithm according to following steps until a last generation battery pack population that meets a preset condition is obtained; calculating minimum capacity of all of the members according to the capacity and state of charge of each of the cell cores in the battery pack population; sorting the members on a basis of the minimum capacity of the members in the battery pack population and generating a new battery pack population according to sorting results; and combining the cell cores into target modules and combining the target modules into a target battery pack according to combination of the cell cores of the target members in the last generation battery pack population.
Filter element designed as a cassette filter for high-temperature applications for air filtration in a temperature range of greater than 100°C to at most 385°C, comprising a frame which is assigned a seal , wherein the frame is assigned a receptacle in which the seal is received, and fixed, in a form-fitting manner, wherein the receptacle is formed in a profile strand which forms the frame, characterized in that the profile strand is in the form of a keder rail composed of aluminium, in which the seal is received.