mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication system performing wireless communication between a transmitter device and a receiver device according to a multicarrier multiplexing transmission method, said wireless communication system whereby said transmitter device is adapted to perform error correction coding on transmitting data and to randomly set a plurality of null subcarriers having zero amplitude according to a predetermined null pattern in order to determine whether an interference wave occurs among a plurality of subcarriers which are allocated to transmission of data subjected to error correction coding, said transmitter device is adapted to configure each transmission frame set for each time slot, thus transmitting all the data of the error correction coding via the plurality of subcarriers without decreasing data transmission efficiency, while said receiver device is adapted to perform error-correction decoding on received signals from the transmitter device so as to reproduce the transmitting data, wherein upon detecting reception power exceeding a threshold within the plurality of null subcarriers for each transmission frame, said receiver device determines that an interference wave occurs in the transmission frame, wherein said receiver device is characterised in that it is further adapted to transmit an interference wave detection information representing at least one sub-carrier undergoing interference being detected, thus having the transmitter device set the plurality of null sub-carrier being disposed based on the interference wave detection information.
A method, for use in a network device, for performing lawful interception in a communication network, the method comprising: receiving, from a sessions continuity server, SCS, or a SCS controller, SCSC, instructions to selectively activate, a communication data duplication functionality, wherein the network device is located in a separate network segment of a communication path between users, the data duplication functionality duplicates data being communicated between the users; comparing, in real-time, a set of adulteration parameters derived from duplicated communication data with associated thresholds within a set of thresholds to detect adulteration in the duplicated communication data; determining a confidence level of detecting adulteration in duplicated communication data; and receiving, from the SCS or SCSC, instructions to remove the network device from having active communication data duplication functionality based on a result of the comparing and the confidence level. receiving, from a sessions continuity server, SCS, or a SCS controller, SCSC, instructions to selectively activate, a communication data duplication functionality, wherein the network device is located in a separate network segment of a communication path between users, the data duplication functionality duplicates data being communicated between the users; comparing, in real-time, a set of adulteration parameters derived from duplicated communication data with associated thresholds within a set of thresholds to detect adulteration in the duplicated communication data; determining a confidence level of detecting adulteration in duplicated communication data; and receiving, from the SCS or SCSC, instructions to remove the network device from having active communication data duplication functionality based on a result of the comparing and the confidence level.
A single photon avalanche diode, SPAD, formed by a CMOS fabrication process, the SPAD comprising: a first region comprising a deep well of a first conductivity type, the first region being formed above a second region of a second conductivity type; a first contact connected to the first region via a conductive pathway of the first conductivity type; and a second contact connected to the second region via a conductive pathway of the second conductivity type; wherein the doping in the vicinity of the first region is controlled such that the breakdown voltage is smaller at the junction between the bottom of the deep well and the second region than elsewhere around the first region, whereby the junction forms a SPAD multiplication region when an appropriate bias voltage is applied between the contacts; characterised in that the second region is a substrate or epi-layer. a first region comprising a deep well of a first conductivity type, the first region being formed above a second region of a second conductivity type; a first contact connected to the first region via a conductive pathway of the first conductivity type; and a second contact connected to the second region via a conductive pathway of the second conductivity type; wherein the doping in the vicinity of the first region is controlled such that the breakdown voltage is smaller at the junction between the bottom of the deep well and the second region than elsewhere around the first region, whereby the junction forms a SPAD multiplication region when an appropriate bias voltage is applied between the contacts; characterised in that the second region is a substrate or epi-layer.
Digital pump axis control system with an at least partially open circuit comprising: an electric engine, powering a first and a second hydraulic machine (12, 14), wherein the first and second hydraulic machines (12, 14) are connected in a rotationally locked manner to each other; at least one cylinder, having a first chamber and a second chamber, wherein the first chamber of the cylinder is connected through a first pipeline to the first hydraulic machine and the second chamber of the cylinder is connected through a second pipeline to the second hydraulic machine; a first valve arranged in the first pipeline; a second valve arranged in the second pipeline; a third valve arranged in a third pipeline, wherein the third pipeline connects a portion of the first pipeline arranged between the first hydraulic machine and the first valve and a portion of the second pipeline arranged between the second hydraulic machine and the second valve; and an open tank providing hydraulic fluid to inlets of the first and second hydraulic machines (12, 14), characterized in that the first and second hydraulic machines (12, 14) are digital variable displacement pumps, each providing a positive and a negative displacement of hydraulic fluid, and wherein the third valve enables both hydraulic machines (12, 14) to work together on the same chamber (22a, 22b) of the cylinder. an electric engine, powering a first and a second hydraulic machine (12, 14), wherein the first and second hydraulic machines (12, 14) are connected in a rotationally locked manner to each other; at least one cylinder, having a first chamber and a second chamber, wherein the first chamber of the cylinder is connected through a first pipeline to the first hydraulic machine and the second chamber of the cylinder is connected through a second pipeline to the second hydraulic machine; a first valve arranged in the first pipeline; a second valve arranged in the second pipeline; a third valve arranged in a third pipeline, wherein the third pipeline connects a portion of the first pipeline arranged between the first hydraulic machine and the first valve and a portion of the second pipeline arranged between the second hydraulic machine and the second valve; and an open tank providing hydraulic fluid to inlets of the first and second hydraulic machines (12, 14), characterized in that the first and second hydraulic machines (12, 14) are digital variable displacement pumps, each providing a positive and a negative displacement of hydraulic fluid, and wherein the third valve enables both hydraulic machines (12, 14) to work together on the same chamber (22a, 22b) of the cylinder.
A connector fixture comprising a fixture body and a positioning member, wherein the fixture body includes a fixing portion, a retaining portion, and a contact portion (17A, 17B), the fixing portion is configured to be fixed to a first connector when the fixture body is attached to the first connector, and to determine relative position between the fixture body and the first connector in a z-axis direction among x-axis direction, y-axis direction, and z-axis direction, the directions being orthogonal to each other, when the fixing portion is fixed to the first connector, the retaining portion is configured to be hooked on a portion of a device including a second connector when the first connector is connected to the second connector in a state where the fixture body is attached to the first connector, preventing the first connector from being displaced and detached from the second connector, the contact portion (17A, 17B) is configured to contact the first connector when the fixture body is attached to the first connector, to determine relative position between the fixture body and the first connector in the y-axis direction, and the positioning member is configured to contact the first connector when the fixture body is attached to the first connector, to determine relative position between the fixture body and the first connector in the x-axis direction, characterized in that the positioning member is configured to be separable from the fixture body. the fixture body includes a fixing portion, a retaining portion, and a contact portion (17A, 17B), the fixing portion is configured to be fixed to a first connector when the fixture body is attached to the first connector, and to determine relative position between the fixture body and the first connector in a z-axis direction among x-axis direction, y-axis direction, and z-axis direction, the directions being orthogonal to each other, when the fixing portion is fixed to the first connector, the retaining portion is configured to be hooked on a portion of a device including a second connector when the first connector is connected to the second connector in a state where the fixture body is attached to the first connector, preventing the first connector from being displaced and detached from the second connector, the contact portion (17A, 17B) is configured to contact the first connector when the fixture body is attached to the first connector, to determine relative position between the fixture body and the first connector in the y-axis direction, and the positioning member is configured to contact the first connector when the fixture body is attached to the first connector, to determine relative position between the fixture body and the first connector in the x-axis direction, characterized in that the positioning member is configured to be separable from the fixture body.
An adjustable connecting element of a device for fixing a shoe to a gliding board, capable of a mobile connection with a second element provided with a slide to enable movement thereof for the adjustment of the longitudinal position of a boot binding device on the gliding board, characterized in that it includes a rod extending in the longitudinal direction and mobile in rotation about its longitudinal axis and comprising a locking element capable of fixing the connecting element in a longitudinal position on the second element and in that it includes at least one clearance compensation component, the rod comprising an actuating element arranged around the rod cooperating with at least one clearance compensation component, so as to reduce or to eliminate the clearance remaining between the connecting element and the slide when fixing the connecting element by means of the locking element.
A method for providing configuration for downlink transmission to a wireless device, the method being performed by a network node, the method comprising: transmitting a Downlink Control Information, DCI, message comprising a Downlink, DL, short Transmission Time Interval, sTTI, configuration for DL sTTI data transmission in an sTTI, which is shorter than a legacy Transmission Time Interval, TTI, wherein: the DL sTTI data transmission following a starting symbol index of 1 or 3 have a first pattern consisting of one 3-symbol sTTI, four 2-symbol sTTIs and one 3-symbol sTTI in consecutive order, and the DL sTTI data transmission following a starting symbol index of 2 have a second pattern consisting of one 2-symbol sTTI, one 3-symbol sTTI, three 2-symbol sTTIs and one 3-symbol sTTI in consecutive order, wherein the starting symbol index is the first symbol within a subframe that DL sTTI data transmission can be performed. the DL sTTI data transmission following a starting symbol index of 1 or 3 have a first pattern consisting of one 3-symbol sTTI, four 2-symbol sTTIs and one 3-symbol sTTI in consecutive order, and the DL sTTI data transmission following a starting symbol index of 2 have a second pattern consisting of one 2-symbol sTTI, one 3-symbol sTTI, three 2-symbol sTTIs and one 3-symbol sTTI in consecutive order, wherein the starting symbol index is the first symbol within a subframe that DL sTTI data transmission can be performed.
A paint film-protecting sheet comprising: a sheet-like substrate; and a pressure-sensitive adhesive layer disposed on the substrate, the substrate comprising a resin layer (layer A) which forms a surface of the substrate on a pressure-sensitive adhesive layer side and one, two or more resin layers (layers B) superimposed on a back side of the layer A, wherein layer A and layer B are primarily composed of a polyolefin or a polyester, the layer B containing an organic weathering stabilizer having a weight-average molecular weight Mw of at least 1.5×10 3 in a predetermined amount Pb, the layer A being free of the organic weathering stabilizer or containing the same in a predetermined amount Pa which satisfies the condition Pa/Pb ≤ 0.5, wherein the amount Pb of the organic weathering stabilizer in the layer B is from 0.1% by mass to 5% by mass. a sheet-like substrate; and a pressure-sensitive adhesive layer disposed on the substrate, the substrate comprising a resin layer (layer A) which forms a surface of the substrate on a pressure-sensitive adhesive layer side and one, two or more resin layers (layers B) superimposed on a back side of the layer A, wherein layer A and layer B are primarily composed of a polyolefin or a polyester, the layer B containing an organic weathering stabilizer having a weight-average molecular weight Mw of at least 1.5×10 3 in a predetermined amount Pb, the layer A being free of the organic weathering stabilizer or containing the same in a predetermined amount Pa which satisfies the condition Pa/Pb ≤ 0.5, wherein the amount Pb of the organic weathering stabilizer in the layer B is from 0.1% by mass to 5% by mass.
Fuel cell system having at least one membrane electrode assembly arranged in a housing, with a cathode supply having a compressor and with a device for housing ventilation, characterised in that the device for housing ventilation has a medium pressure draw-off assigned to the compressor.
A method for manufacturing an SMC, the method comprising: opening an elongated fiber bundle with a sizing agent attached thereto to be widened in a width direction thereof to be put into a flat state; and heat-setting the opened fiber bundle in the flat state by heating; continuously cutting the heat-set fiber bundle so that resultant cut fiber bundles are scattered on a first resin sheet to form thereon a sheet-shaped fiber bundle group; bonding a second resin sheet on the sheet-shaped fiber bundle group; and impregnating the sheet-shaped fiber bundle group with a resin forming the first and second resin sheet by pressurizing. opening an elongated fiber bundle with a sizing agent attached thereto to be widened in a width direction thereof to be put into a flat state; and heat-setting the opened fiber bundle in the flat state by heating; continuously cutting the heat-set fiber bundle so that resultant cut fiber bundles are scattered on a first resin sheet to form thereon a sheet-shaped fiber bundle group; bonding a second resin sheet on the sheet-shaped fiber bundle group; and impregnating the sheet-shaped fiber bundle group with a resin forming the first and second resin sheet by pressurizing.
A method of monitoring a dynamic compensation control system of an elevator system, the method comprising: receiving and monitoring a first motion state sensor signal generated by a first motion state sensor (113, 402), the first motion state sensor (113, 402) associated with an elevator machine; receiving and monitoring a second motion state sensor signal generated by a second motion state sensor, the second motion state sensor located on an elevator car; performing a dynamic compensation control mode of operation to control a motion state of the elevator car relative to a landing with a computing system by controlling the elevator machine to minimise oscillations, vibrations, excessive position deflections, and/or bounce of the elevator car at the landing; characterised by determining an operational status of the second motion state sensor based on an analysis of the first motion state sensor signal and the second motion state sensor signal, wherein the operation status is determined to be a failure status if the second motion state sensor signal is outside of a predetermined tolerance relative to the first motion state sensor signal; and when it is determined that the operation status of the second motion state sensor is the failure status, deactivating the dynamic compensation control mode of operation of the elevator system. receiving and monitoring a first motion state sensor signal generated by a first motion state sensor (113, 402), the first motion state sensor (113, 402) associated with an elevator machine; receiving and monitoring a second motion state sensor signal generated by a second motion state sensor, the second motion state sensor located on an elevator car; performing a dynamic compensation control mode of operation to control a motion state of the elevator car relative to a landing with a computing system by controlling the elevator machine to minimise oscillations, vibrations, excessive position deflections, and/or bounce of the elevator car at the landing; characterised by determining an operational status of the second motion state sensor based on an analysis of the first motion state sensor signal and the second motion state sensor signal, wherein the operation status is determined to be a failure status if the second motion state sensor signal is outside of a predetermined tolerance relative to the first motion state sensor signal; and when it is determined that the operation status of the second motion state sensor is the failure status, deactivating the dynamic compensation control mode of operation of the elevator system.
A MEMS device comprising a fixed member and a movable member vibratably supported via a resilient body, the MEMS device comprising an impact alleviation mechanism (4, 4a, 4b, 4d, 4e) provided at a collidable portion of the movable member and the fixed member, the impact alleviation mechanism (4, 4a, 4b, 4d, 4e) having a stopper portion (5, 5a, 5b, 5d) in a form of a strip protruding at an angle of 80 degrees or larger and 100 degrees or smaller to a collision direction (x) and having first and second side edges among which at least the first side edge is fixed, and wherein the stopper portion (5, 5a, 5b, 5d) is provided to one of the fixed member and the movable member, and the impact alleviation mechanism (4, 4a, 4b, 4d, 4e) has an elongate protruding portion (6, 6d 1, 6d 2, 6e) provided to the other of the fixed member and the movable member to protrude in the collision direction (x), the elongate protruding portion (6, 6d 1, 6d 2, 6e) has an apex most protruding in the collision direction (x), and the elongate protruding portion (6, 6d 1, 6d 2, 6e) and the stopper portion (5, 5a, 5b, 5d) are configured such that in response to a larger collision force when the movable member collides with the fixed member, initially the apex of the elongate protruding portion (6, 6d 1, 6d 2, 6e) abuts against the stopper portion (5, 5a, 5b, 5d), and when the movable member further moves toward the fixed member, the elongate protruding portion (6, 6d 1, 6d 2, 6e) elastically deforms the stopper portion (5, 5a, 5b, 5d) and curves the stopper portion (5, 5a, 5b, 5d) so that a position of an outer edge of an abutment area of the elongate protruding portion (6, 6d 1, 6d 2, 6e) and the stopper portion (5, 5a, 5b, 5d) approaches the first side edge of the stopper portion (5, 5a, 5b, 5d) more closely. when the movable member collides with the fixed member, initially the apex of the elongate protruding portion (6, 6d 1, 6d 2, 6e) abuts against the stopper portion (5, 5a, 5b, 5d), and when the movable member further moves toward the fixed member, the elongate protruding portion (6, 6d 1, 6d 2, 6e) elastically deforms the stopper portion (5, 5a, 5b, 5d) and curves the stopper portion (5, 5a, 5b, 5d) so that a position of an outer edge of an abutment area of the elongate protruding portion (6, 6d 1, 6d 2, 6e) and the stopper portion (5, 5a, 5b, 5d) approaches the first side edge of the stopper portion (5, 5a, 5b, 5d) more closely.
Process for the preparation of carbon-based nano- or microtubes comprising the steps of: a) forming on a solid support a first layer comprising a first polymer, b) forming on the first layer one or more further layers, wherein a second layer is formed on the first layer and comprises a second polymer, wherein the second layer has a smaller volume expansion than the first layer upon treatment of the layers with at least one source selected from solvents or thermal energy; c) self-rolling the assembly of layers by treating with said source to provide tubes, preferably single tubes, wherein the self-rolling is initiated by mechanically patterning the assembly of layers, and d) pyrolyzing the tubes; wherein the first and/or second layer comprises a carbon precursor, which is a polymer that provides a high carbon yield during pyrolysis and is selected from the group consisting of phenol-aldehyde resin, urea-aldehyde resin, aniline-aldehyde resin, polyimide, polyacrylonitrile, polydivinylbenzene, polyvinylpyridine, polypyrrole, polythiophene, polyaniline, polyfurfural alcohol, carbohydrates, and copolymers or mixtures thereof, wherein the deposition of the layers is carried out in a spin-coating process, dip-coating process or film casting process, and wherein step (c) can be carried out in absence or presence of solvent(s). a) forming on a solid support a first layer comprising a first polymer, b) forming on the first layer one or more further layers, wherein a second layer is formed on the first layer and comprises a second polymer, wherein the second layer has a smaller volume expansion than the first layer upon treatment of the layers with at least one source selected from solvents or thermal energy; c) self-rolling the assembly of layers by treating with said source to provide tubes, preferably single tubes, wherein the self-rolling is initiated by mechanically patterning the assembly of layers, and d) pyrolyzing the tubes;