mhurhangee/ep-ind-claims huggingface dataset:
A method of identifying when a message is received at a control station from at least one device in a network having a plurality of devices, said method comprising the steps of: receiving at the control station a low bandwidth signal from the at least one device; obtaining a coarse timestamp estimate of when said low bandwidth signal is received by correlating with a pre-programmed signal template and detecting where the correlation is above a preselected value; the method characterized in that it further comprises the steps of: generating a higher resolution correlation estimate by phase shifting the pre-programmed signal template K separate phase values within a sample period Δt in the vicinity of the coarse timestamp estimate, and repeating the correlation; and applying a curve fitting function about the higher resolution correlation estimate to obtain an accurate timestamp when the message was received. receiving at the control station a low bandwidth signal from the at least one device; obtaining a coarse timestamp estimate of when said low bandwidth signal is received by correlating with a pre-programmed signal template and detecting where the correlation is above a preselected value; the method characterized in that it further comprises the steps of: generating a higher resolution correlation estimate by phase shifting the pre-programmed signal template K separate phase values within a sample period Δt in the vicinity of the coarse timestamp estimate, and repeating the correlation; and applying a curve fitting function about the higher resolution correlation estimate to obtain an accurate timestamp when the message was received. generating a higher resolution correlation estimate by phase shifting the pre-programmed signal template K separate phase values within a sample period Δt in the vicinity of the coarse timestamp estimate, and repeating the correlation; and applying a curve fitting function about the higher resolution correlation estimate to obtain an accurate timestamp when the message was received.
A bandwidth allocation method, comprising: receiving Discontinuous Reception, DRX, indication information, the DRX indication information being used for a terminal device to determine a working bandwidth to be used within a DRX cycle; and determining the working bandwidth to be used within the DRX cycle according to the DRX indication information, characterized in that the DRX indication information is carried in downlink control information, DCI, the DRX indication information is used to indicate a bandwidth-part allocation index number, the bandwidth-part allocation index number is one of multiple bandwidth-part allocation index numbers, and different bandwidth-part allocation index numbers correspond to different bandwidth-part allocations in multiple types of bandwidth-part allocations; wherein determining the working bandwidth to be used within the DRX cycle according to the DRX indication information comprises: determining the working bandwidth to be used within the DRX cycle according to a bandwidth-part allocation corresponding to the bandwidth-part allocation index number, wherein the bandwidth-part allocation is for the terminal device to be used within one DRX cycle. receiving Discontinuous Reception, DRX, indication information, the DRX indication information being used for a terminal device to determine a working bandwidth to be used within a DRX cycle; and determining the working bandwidth to be used within the DRX cycle according to the DRX indication information, characterized in that the DRX indication information is carried in downlink control information, DCI, the DRX indication information is used to indicate a bandwidth-part allocation index number, the bandwidth-part allocation index number is one of multiple bandwidth-part allocation index numbers, and different bandwidth-part allocation index numbers correspond to different bandwidth-part allocations in multiple types of bandwidth-part allocations; wherein determining the working bandwidth to be used within the DRX cycle according to the DRX indication information comprises: determining the working bandwidth to be used within the DRX cycle according to a bandwidth-part allocation corresponding to the bandwidth-part allocation index number, wherein the bandwidth-part allocation is for the terminal device to be used within one DRX cycle.
A method to communicate capabilities of a mobile station to a network, comprising: receiving, at the network, a message from the mobile station to initiate a data transfer session between the mobile station and the network, the message adaptable to indicate different subsets of radio access capabilities of the mobile station, the message indicating a subset of the different subsets, the indicated subset of the radio access capabilities of the mobile station pertaining to a specific type of use by the mobile station for the data transfer session; and allocating, by the network, resources for the data transfer session based on the subset of the radio access capabilities of the mobile station indicated in the message; characterized in that the message indicating the subset includes one of a plurality of code values, each of the plurality of code values pre-defined to indicate a corresponding one of the different subsets of the radio access capabilities. receiving, at the network, a message from the mobile station to initiate a data transfer session between the mobile station and the network, the message adaptable to indicate different subsets of radio access capabilities of the mobile station, the message indicating a subset of the different subsets, the indicated subset of the radio access capabilities of the mobile station pertaining to a specific type of use by the mobile station for the data transfer session; and allocating, by the network, resources for the data transfer session based on the subset of the radio access capabilities of the mobile station indicated in the message; characterized in that the message indicating the subset includes one of a plurality of code values, each of the plurality of code values pre-defined to indicate a corresponding one of the different subsets of the radio access capabilities.
A heat exchanger comprising: a first plurality of layers, each of the first plurality of layers including: a corrugated sheet comprising a series of regular corrugations across its width for flow of liquid therethrough, the series of corrugations having a predetermined period; the heat exchanger characterised in that each of the first plurality of layers includes a de-congealing channel for flow of liquid across the width of the corrugated sheet in parallel with the corrugations, the de-congealing channel formed at least in part by two adjacent corrugations (110a, 110b) that are separated by greater than the predetermined period. a first plurality of layers, each of the first plurality of layers including: a corrugated sheet comprising a series of regular corrugations across its width for flow of liquid therethrough, the series of corrugations having a predetermined period; the heat exchanger characterised in that each of the first plurality of layers includes a de-congealing channel for flow of liquid across the width of the corrugated sheet in parallel with the corrugations, the de-congealing channel formed at least in part by two adjacent corrugations (110a, 110b) that are separated by greater than the predetermined period. a corrugated sheet comprising a series of regular corrugations across its width for flow of liquid therethrough, the series of corrugations having a predetermined period; the heat exchanger characterised in that each of the first plurality of layers includes a de-congealing channel for flow of liquid across the width of the corrugated sheet in parallel with the corrugations, the de-congealing channel formed at least in part by two adjacent corrugations (110a, 110b) that are separated by greater than the predetermined period.
Use of a textile reinforcement complex, comprising a stack of textile layers, which comprises an intermediate layer comprising: • an assembly of weft yarns; • and an assembly of warp yarns (3, 4) associated in pairs, each pair comprising two yarns of different type, one at least of which is based on high-tenacity yarns, the two yarns of a same pair being woven with the weft yarns in a "leno" weave. so that said intermediate layer has a draining role within the complex, as a reinforcing layer for manufacturing composite materials by infusion techniques where a polymer resin is introduced into a mold at specific points and displaces within or around the fibrous layers towards suction points. • an assembly of weft yarns; • and an assembly of warp yarns (3, 4) associated in pairs, each pair comprising two yarns of different type, one at least of which is based on high-tenacity yarns, the two yarns of a same pair being woven with the weft yarns in a "leno" weave.
A plug processing device (180A, 180B) comprising: a rotating motor; a first plug chuck configured to grip a plug (202, 205); and a second plug chuck positioned above the first plug chuck, wherein the first plug chuck includes at least two or more first supports configured to grip the plug (202, 205) from a plurality of directions, the second plug chuck includes a second support arranged in a radial direction of the plug (202, 205), the second support having an inclined lower end surface, and the second plug chuck is rotated so as to perform plug opening or plug closing of the plug (202, 205) with respect to a container (201, 204), the first plug chuck is configured such that each of the first supports are rotatable by the rotating motor. a rotating motor; a first plug chuck configured to grip a plug (202, 205); and a second plug chuck positioned above the first plug chuck, wherein the first plug chuck includes at least two or more first supports configured to grip the plug (202, 205) from a plurality of directions, the second plug chuck includes a second support arranged in a radial direction of the plug (202, 205), the second support having an inclined lower end surface, and the second plug chuck is rotated so as to perform plug opening or plug closing of the plug (202, 205) with respect to a container (201, 204), the first plug chuck is configured such that each of the first supports are rotatable by the rotating motor.
An epicyclic transmission comprising: - a sun gear rotating about a transmission axis; - a planet carrier comprising a plurality of tenons, which extend along respective supporting axes; - a plurality of planet gears meshing said sun gear and supported by said tenons; - a plurality of bearings for coupling said planet gears to said tenons and allowing said planet gears to rotate about respective rotation axes, which are parallel to said transmission axis; said bearings comprising respective inner rings; - joint means for coupling said inner rings to said tenons in a swiveling manner; characterized in that said joint means are defined by cylindrical hinges which hinge said inner rings to said tenons about hinge axes which are fixed with respect to said tenons and lay on a plane orthogonal to said transmission and rotation axes. - a sun gear rotating about a transmission axis; - a planet carrier comprising a plurality of tenons, which extend along respective supporting axes; - a plurality of planet gears meshing said sun gear and supported by said tenons; - a plurality of bearings for coupling said planet gears to said tenons and allowing said planet gears to rotate about respective rotation axes, which are parallel to said transmission axis; said bearings comprising respective inner rings; - joint means for coupling said inner rings to said tenons in a swiveling manner;
A pump casing for a centrifugal pump, the pump casing extending in an axial direction and having a first housing part, a second housing part for being sealingly attached to the first housing part, a plurality of securing elements for linking the first and the second housing part (2, 3), and a radial sealing element for sealing between the first and the second housing part (2, 3), wherein the first housing part has a first axial end surface and a radially inner surface, wherein the second housing part has a second axial end surface, said first and second axial end surfaces (21, 31) facing each other, wherein the first axial end surface comprises an annular protrusion extending in the axial direction and the second axial end surface comprises an annular recess configured for engaging with the annular protrusion and providing an outside centering, and wherein the annular protrusion is arranged radially inwardly with respect to the securing elements, characterized in that the sealing element is arranged on the radially inner surface.
A method for updating an operating system, comprising: receiving, by an embedded universal integrated circuit card eUICC, a restart instruction sent by a local profile assistant LPA of the terminal device, wherein the restart instruction is used to instruct the eUICC to perform a restart operation; sending, by the eUICC, a first initialization request to a modem of the terminal device, wherein the first initialization request is used to request the modem of the terminal device to control restart of the eUICC; restarting the eUICC under the control of the modem; receiving, by the eUICC after being restarted, a plurality of operating system OS element data packets that are sequentially sent by the LPA, wherein the plurality of OS element data packets are slice files of an installation file of a first operating system; parsing, by the eUICC after receiving a part of OS element data packets in the plurality of OS element data packets, the OS element data packets received by the eUICC, and installing the first operating system based on a parsing result; and after installing the first operating system based on a parsing result of a first OS element data packet, deleting, by the eUICC, the first OS element data packet, wherein the first OS element data packet is any OS element data packet received by the eUICC. receiving, by an embedded universal integrated circuit card eUICC, a restart instruction sent by a local profile assistant LPA of the terminal device, wherein the restart instruction is used to instruct the eUICC to perform a restart operation; sending, by the eUICC, a first initialization request to a modem of the terminal device, wherein the first initialization request is used to request the modem of the terminal device to control restart of the eUICC; restarting the eUICC under the control of the modem; receiving, by the eUICC after being restarted, a plurality of operating system OS element data packets that are sequentially sent by the LPA, wherein the plurality of OS element data packets are slice files of an installation file of a first operating system; parsing, by the eUICC after receiving a part of OS element data packets in the plurality of OS element data packets, the OS element data packets received by the eUICC, and installing the first operating system based on a parsing result; and after installing the first operating system based on a parsing result of a first OS element data packet, deleting, by the eUICC, the first OS element data packet, wherein the first OS element data packet is any OS element data packet received by the eUICC.
A train control system comprising: a vehicle radio set that is mounted on a train traveling on a predetermined track; wayside radio sets each disposed at a predetermined location on the ground; and ground devices each disposed in one of control sections which are set in the track and connected to the wayside radio set belonging to the control section in which the ground device is disposed, each of the ground devices being configured to transmit information to and receive information from the other ground devices, wherein each of the ground devices detect train locations in the control section in which the ground device is disposed, and wherein each of the ground devices, in the case of determining that the number of trains has reached the controllable number of trains or there is the possibility that the number of trains reaches the controllable number of trains in the control section, transmits information indicating that the number of trains has reached the controllable number of trains or that there is the possibility that the number of trains reaches the controllable number of trains, to the other ground devices. a vehicle radio set that is mounted on a train traveling on a predetermined track; wayside radio sets each disposed at a predetermined location on the ground; and ground devices each disposed in one of control sections which are set in the track and connected to the wayside radio set belonging to the control section in which the ground device is disposed, each of the ground devices being configured to transmit information to and receive information from the other ground devices, wherein each of the ground devices detect train locations in the control section in which the ground device is disposed, and wherein each of the ground devices, in the case of determining that the number of trains has reached the controllable number of trains or there is the possibility that the number of trains reaches the controllable number of trains in the control section, transmits information indicating that the number of trains has reached the controllable number of trains or that there is the possibility that the number of trains reaches the controllable number of trains, to the other ground devices.
A method for detecting decreased preload in a ball screw, which is a method for detecting a decrease in a preload applied to the ball screw, the method comprising: a vibration measurement step of measuring vibration occurring in conjunction with rolling balls during operation of the ball screw; a calculation processing step of acquiring a vibration value of a vibration signal in a specific frequency band among vibration signals obtained at the vibration measurement step; and an abnormality detection step of determining that a decrease in the preload has occurred in the ball screw when the vibration value is less than a previously determined threshold with respect to a reference value, the reference value being a vibration value in an initial stage of the operation of the ball screw or during a normal operation of the ball screw.
A sensor arrangement (100, 200, 300), comprising: a current regulator (101, 301); a reference resistance (103, Rref); a feed current scaler (105, 205); and a sensor element (107, 207) having an internal resistance (109, Rs), wherein the internal resistance (109, Rs) of the sensor element (107, 207) and the reference resistance (103, Rref) comprise a predetermined ratio with respect to each other; wherein the current regulator (101, 301) is implemented to provide a reference current (11, Iref) by the reference resistance (103, Rref) and, in response to an interference influence-conditioned change of the reference resistance, change the reference current (I1, Iref) such that the voltage decreasing across the reference resistance (103, Rref) remains in a predetermined range around an applied set voltage (Vsoll); wherein the current regulator (101, 301) is further implemented to provide a feed current (12, Igm2) to the feed current scaler (105, 205) and to change a magnitude of the feed current (12, Igm2) depending on a magnitude of the reference current (I1, Iref, Igm1); and wherein the feed current scaler (105, 205) is implemented, based on the feed current (12, Igm2), to supply a scaled feed current (Ic) into the sensor element (107, 207) to scale a voltage (Vc) decreasing across the internal resistance of the sensor element (107, 207) according to the scaling of the feed current. a current regulator (101, 301); a reference resistance (103, Rref); a feed current scaler (105, 205); and a sensor element (107, 207) having an internal resistance (109, Rs), wherein the internal resistance (109, Rs) of the sensor element (107, 207) and the reference resistance (103, Rref) comprise a predetermined ratio with respect to each other; wherein the current regulator (101, 301) is implemented to provide a reference current (11, Iref) by the reference resistance (103, Rref) and, in response to an interference influence-conditioned change of the reference resistance, change the reference current (I1, Iref) such that the voltage decreasing across the reference resistance (103, Rref) remains in a predetermined range around an applied set voltage (Vsoll); wherein the current regulator (101, 301) is further implemented to provide a feed current (12, Igm2) to the feed current scaler (105, 205) and to change a magnitude of the feed current (12, Igm2) depending on a magnitude of the reference current (I1, Iref, Igm1); and wherein the feed current scaler (105, 205) is implemented, based on the feed current (12, Igm2), to supply a scaled feed current (Ic) into the sensor element (107, 207) to scale a voltage (Vc) decreasing across the internal resistance of the sensor element (107, 207) according to the scaling of the feed current.
Corrugated cardboard installation for the production of corrugated cardboard sheets comprising a. at least one production device (7, 27) for producing a continuous corrugated cardboard length (2, 28) from at least one corrugated length and at least one cover length (12, 29), b. at least one longitudinal cutting/scoring device for longitudinally cutting and scoring the continuous corrugated cardboard length (2, 28) along the operating direction, c. at least one cutting device for cutting to size corrugated cardboard sheets from the perforated continuous corrugated cardboard length (2, 28) and d. at least one control device for controlling the corrugated cardboard installation, characterised in that e. at least one perforation device (31; 31a; 31b; 31c) is provided with at least one perforation unit (55, 56) for perforating the at least one cover length (12, 29) along the operating direction, f. the at least one cutting device is arranged downstream of the at least one perforation device (31; 31a, 31b; 31c) in the operating direction, g. the at least one perforation unit (55, 56) can be pivoted for engaging with the at least one cover length (12, 29) about a pivot axis (57, 58) perpendicular to the operating direction, h. the at least one perforation device (31: 31 a; 31b; 31 c) comprises at least one perforation unit for perforating a first cover length and at least one second perforation unit opposite the at least one first perforation unit relative to the corrugated cardboard length (2, 28) for perforating a second cover length. a. at least one production device (7, 27) for producing a continuous corrugated cardboard length (2, 28) from at least one corrugated length and at least one cover length (12, 29), b. at least one longitudinal cutting/scoring device for longitudinally cutting and scoring the continuous corrugated cardboard length (2, 28) along the operating direction, c. at least one cutting device for cutting to size corrugated cardboard sheets from the perforated continuous corrugated cardboard length (2, 28) and d. at least one control device for controlling the corrugated cardboard installation, characterised in that e. at least one perforation device (31; 31a; 31b; 31c) is provided with at least one perforation unit (55, 56) for perforating the at least one cover length (12, 29) along the operating direction, f. the at least one cutting device is arranged downstream of the at least one perforation device (31; 31a, 31b; 31c) in the operating direction, g. the at least one perforation unit (55, 56) can be pivoted for engaging with the at least one cover length (12, 29) about a pivot axis (57, 58) perpendicular to the operating direction, h. the at least one perforation device (31: 31 a; 31b; 31 c) comprises at least one perforation unit for perforating a first cover length and at least one second perforation unit opposite the at least one first perforation unit relative to the corrugated cardboard length (2, 28) for perforating a second cover length.