mhurhangee/ep-ind-claims huggingface dataset:
A hybrid construction machine including a hydraulic pressure work element (4, 5, 7, 8, 9) driven by hydraulic pressure generated by driving power of an internal combustion engine or a motor generator, and an electric-motor work element driven by an electric motor, the hybrid construction machine comprising: a superordinate control module configured to generate a control command which controls drive of the hydraulic pressure work element (4, 5, 7, 8, 9) and the electric-motor work element; and a subordinate control unit (40-45, 11A, 14A) configured to receive the control command from the superordinate control module to control drive of the hydraulic pressure work element (4, 5, 7, 8, 9) and the electric-motor work element based on the control command generated by the superordinate control module, wherein the subordinate control unit (40-45, 11A, 14A) monitors a service clock in the superordinate control module or monitors a value of the control command received from the superordinate control module to detect an error, such as a malfunction, in the superordinate control module. a superordinate control module configured to generate a control command which controls drive of the hydraulic pressure work element (4, 5, 7, 8, 9) and the electric-motor work element; and a subordinate control unit (40-45, 11A, 14A) configured to receive the control command from the superordinate control module to control drive of the hydraulic pressure work element (4, 5, 7, 8, 9) and the electric-motor work element based on the control command generated by the superordinate control module, wherein the subordinate control unit (40-45, 11A, 14A) monitors a service clock in the superordinate control module or monitors a value of the control command received from the superordinate control module to detect an error, such as a malfunction, in the superordinate control module.
Suction hose connecting piece for a suction hose for establishing a flow connection, in particular from a machine tool to a vacuum cleaner, wherein the connecting piece comprises a tubular body with a circumferential wall bounding a flow passage and having a plug section located at the tubular body for establishing a plug connection to a mating connecting piece, wherein the connecting piece and the mating connecting piece can be plugged to each other, wherein the plug section consists of a material that is more elastically yielding than the tubular body, wherein at least one rotational form-fit contour is located at the plug section for establishing a form-fit connection to a mating form-fit contour of the mating connecting piece, wherein at least one rotational form-fit contour can be brought into or out of engagement with the mating form-fit contour by a relative rotational movement of the connecting piece and the mating connecting piece about a longitudinal axis of the plug section.
A heat dissipating structure having a plurality of heat dissipating members connected for enhancing heat dissipation from a heat source, wherein each of the heat dissipating members includes a heat conduction sheet in a spirally winding shape for conducting heat from the heat source, a cushion member provided on an annular back surface of the heat conduction sheet, the cushion member being deformable following a surface shape of the heat source more easily than the heat conduction sheet, and a through passage penetrating in a winding direction of the heat conduction sheet, wherein the heat dissipating members orthogonally arranged to the winding direction of the heat conduction sheet are connected by a connection member. a heat conduction sheet in a spirally winding shape for conducting heat from the heat source, a cushion member provided on an annular back surface of the heat conduction sheet, the cushion member being deformable following a surface shape of the heat source more easily than the heat conduction sheet, and a through passage penetrating in a winding direction of the heat conduction sheet, wherein the heat dissipating members orthogonally arranged to the winding direction of the heat conduction sheet are connected by a connection member.
A flowing electrolyte battery, comprising: first and second electrodes separated by a membrane, the battery exhibiting an electric potential across the first and second electrodes when anolyte flows through the first electrode and catholyte flows through the second electrode; one or more valves (207; 208) in fluid communication with the second electrode, a controller for controlling operation of the valves in normal operation of the battery or in a neutralized mode when detecting a neutralization event, wherein the battery's electric potential is neutralized during the neutralized mode; the controller controlling operation of the valves such that the catholyte flows through the second electrode during normal operation of the battery and that the anolyte flows through the second electrode during the neutralized mode; the valves (207; 208) operable to permit the flow of the catholyte through the second electrode during normal operation of the battery, the valves (207; 208) operable to permit the flow of anolyte through the second electrode during the neutralized mode, and the valves (207; 208) preventing the anolyte flowing through the second electrode during the neutralized mode from flowing to a catholyte reservoir housing the catholyte. first and second electrodes separated by a membrane, the battery exhibiting an electric potential across the first and second electrodes when anolyte flows through the first electrode and catholyte flows through the second electrode; one or more valves (207; 208) in fluid communication with the second electrode, a controller for controlling operation of the valves in normal operation of the battery or in a neutralized mode when detecting a neutralization event, wherein the battery's electric potential is neutralized during the neutralized mode; the controller controlling operation of the valves such that the catholyte flows through the second electrode during normal operation of the battery and that the anolyte flows through the second electrode during the neutralized mode; the valves (207; 208) operable to permit the flow of the catholyte through the second electrode during normal operation of the battery, the valves (207; 208) operable to permit the flow of anolyte through the second electrode during the neutralized mode, and the valves (207; 208) preventing the anolyte flowing through the second electrode during the neutralized mode from flowing to a catholyte reservoir housing the catholyte.
A housing system for a radiotherapy apparatus, the system comprising: a support structure configured to support a source of radiation; a cover hingeably attached to the support structure and movable between a closed position in which the cover shields the source of radiation and an open position; and a lock configured to releasably lock the cover in the closed position. a support structure configured to support a source of radiation; a cover hingeably attached to the support structure and movable between a closed position in which the cover shields the source of radiation and an open position; and a lock configured to releasably lock the cover in the closed position.
A joint, termination or cross-connection arrangement (20, 30, 40, 50) for a cable, comprising at least a first cable and a protective casing, the first cable comprising a metallic sheath (2a, 2a'), and a first longitudinal end portion wherein the metallic sheath is exposed, the protective casing being essentially rotational symmetrical around a longitudinal axis and comprising a first tubular end portion coaxial with the longitudinal axis and through which the first longitudinal end portion of the first cable extends, the arrangement characterised in further comprising a rotational symmetrical transition sleeve (21, 31, 41, 51) coaxial with the longitudinal axis of the protective casing, the transition sleeve (21, 31, 41, 51) comprising a first longitudinal end surface (22, 32, 42, 52) and a second longitudinal end surface (23, 33, 43, 53), wherein the transition sleeve (21, 31, 41, 51), at the first longitudinal end surface thereof (22, 32, 42, 52), is welded to the metallic sheath (2a, 2a') of the first cable around the whole circumference of the metallic sheath (2a, 2a'), and wherein the transition sleeve (21, 31, 41, 51) is further welded to the first tubular end portion of the protective casing around the whole circumference of the transition sleeve (21, 31,41, 51).
A device for separating a sample by chromatography, the device comprising: a wall having a wetted surface exposed to a mobile phase including the sample during chromatographic separation, wherein the wetted surface of the wall includes an alloy material comprising the following constituents: 32 wt%-38 wt% cobalt; 32 wt%-38 wt% nickel; 17 wt%-23 wt% chromium; and 7 wt%-13 wt% molybdenum; and a remainder being limited to a total of 5 wt% and limited in an amount of titanium to 0.1 wt%. a wall having a wetted surface exposed to a mobile phase including the sample during chromatographic separation, wherein the wetted surface of the wall includes an alloy material comprising the following constituents: 32 wt%-38 wt% cobalt; 32 wt%-38 wt% nickel; 17 wt%-23 wt% chromium; and 7 wt%-13 wt% molybdenum; and 32 wt%-38 wt% cobalt; 32 wt%-38 wt% nickel; 17 wt%-23 wt% chromium; and 7 wt%-13 wt% molybdenum; and a remainder being limited to a total of 5 wt% and limited in an amount of titanium to 0.1 wt%.
A method in a wireless communication system for determining a network topology among a plurality of mobile nodes forming a cluster and having a common communication link to a base station, each mobile node having a unique identity, the method comprising: causing at least one of the mobile nodes to transmit a signal during a transmission interval, the at least one node thereby becoming a cluster head, CH, selecting, at mobile nodes other than the CH, non-CH nodes, one or more transmission intervals in a transmission frame; causing ones of the non-CH nodes to transmit a signal during the selected interval for given non-CH nodes; forming, by the CH, a first digest of transmitted signals received from non-CH nodes according to the transmission interval in which at least one signal is received, the forming comprising logging, as a binary vector, a presence or absence of a signal transmitted from ones of the non-CH nodes during each of the transmission intervals in the transmission frame; constructing a compact topology graph for the node cluster as a function of the digest, a node identity for the CH and the transmission interval in which the CH signal was transmitted; obtaining, by the CH, a two-hop neighbor list, by forming a second digest of received transmitted signals; sending, by the CH to the base station, the CH identifier, the time slots in which it is first transmitted and the two digests for enabling a building of the CTG sub-graph at the base station. causing at least one of the mobile nodes to transmit a signal during a transmission interval, the at least one node thereby becoming a cluster head, CH, selecting, at mobile nodes other than the CH, non-CH nodes, one or more transmission intervals in a transmission frame; causing ones of the non-CH nodes to transmit a signal during the selected interval for given non-CH nodes; forming, by the CH, a first digest of transmitted signals received from non-CH nodes according to the transmission interval in which at least one signal is received, the forming comprising logging, as a binary vector, a presence or absence of a signal transmitted from ones of the non-CH nodes during each of the transmission intervals in the transmission frame; constructing a compact topology graph for the node cluster as a function of the digest, a node identity for the CH and the transmission interval in which the CH signal was transmitted; obtaining, by the CH, a two-hop neighbor list, by forming a second digest of received transmitted signals; sending, by the CH to the base station, the CH identifier, the time slots in which it is first transmitted and the two digests for enabling a building of the CTG sub-graph at the base station.
A method for implementing compatibility between mobile call waiting and cluster call waiting, comprising the following steps: when a first calling terminal initiates a first call to a called terminal, a base station receiving access information of the first call transmitted by the called terminal; wherein the access information indicates that the call between the first calling terminal and the called terminal is connected; the base station making a request to a mobile processor and a cluster processor for updating status information of the called terminal to a busy state; according to the request from the base station, the mobile processor and the cluster processor updating the status information of the called terminal to the busy state; when a second calling terminal initiates a second call to the called terminal, the base station querying out that the status of the called terminal is busy, and transmitting call waiting incoming call prompting information of the second call to the called terminal; wherein the first call is a mobile call and the second call is a cluster call; or, the first call is a cluster call and the second call is a mobile call. when a first calling terminal initiates a first call to a called terminal, a base station receiving access information of the first call transmitted by the called terminal; wherein the access information indicates that the call between the first calling terminal and the called terminal is connected; the base station making a request to a mobile processor and a cluster processor for updating status information of the called terminal to a busy state; according to the request from the base station, the mobile processor and the cluster processor updating the status information of the called terminal to the busy state; when a second calling terminal initiates a second call to the called terminal, the base station querying out that the status of the called terminal is busy, and transmitting call waiting incoming call prompting information of the second call to the called terminal; wherein the first call is a mobile call and the second call is a cluster call; or, the first call is a cluster call and the second call is a mobile call.
Vehicle intended to travel along a route, the vehicle comprising: - a first electrical supply device comprising at least one sensing member intended to cooperate with an electrical supply source fitted on the route, - a second electrical supply device comprising means for storing energy onboard, - at least one item of electrical equipment (24, 26), - means for linking each item of electrical equipment (24, 26) with the first supply device or with the second supply device, the linking means having a first operating mode in which the linking means connect each item of electrical equipment (24, 26) electrically with the first supply device, and a second operating mode in which each item of electrical equipment (24, 26) is disconnected electrically from the first supply device and the linking means connect each item of electrical equipment (24, 26) electrically with the second supply device, - an antenna (38a, 38b) for receiving at least one first signal emitted by a first beacon fitted on the route, and a control unit configured to engage the passage of the linking means from one operating mode to the other during receipt of the at least one first signal, characterised in that the linking means connect the at least one sensing member to the at least one item of electrical equipment (24, 26) via an electrical circuit comprising: - a first branch comprising a first switch, and - a second branch, parallel to the first branch, and comprising a second switch and a diode, comprising an anode connected to the at least sensing member and a cathode connected electrically to the at least one item of electrical equipment (24, 26). - a first electrical supply device comprising at least one sensing member intended to cooperate with an electrical supply source fitted on the route, - a second electrical supply device comprising means for storing energy onboard, - at least one item of electrical equipment (24, 26), - means for linking each item of electrical equipment (24, 26) with the first supply device or with the second supply device, the linking means having a first operating mode in which the linking means connect each item of electrical equipment (24, 26) electrically with the first supply device, and a second operating mode in which each item of electrical equipment (24, 26) is disconnected electrically from the first supply device and the linking means connect each item of electrical equipment (24, 26) electrically with the second supply device, - an antenna (38a, 38b) for receiving at least one first signal emitted by a first beacon fitted on the route, and a control unit configured to engage the passage of the linking means from one operating mode to the other during receipt of the at least one first signal, - a first branch comprising a first switch, and - a second branch, parallel to the first branch, and comprising a second switch and a diode, comprising an anode connected to the at least sensing member and a cathode connected electrically to the at least one item of electrical equipment (24, 26).
A sound insulation member (16; 40; 60; 80) comprising: a fitting portion (24; 42; 68; 82) that is fitted into at least one of a door front-side end portion and a door rear-side end portion of an inner weather strip that is disposed at an upper portion of a door inner panel; a sound damping portion, a sealing portion (26; 46; 70; 84) that fills a gap between the inner weather strip and the door inner panel, characterized by further comprising a covering portion (32, 44, 76, 86) that is provided on the fitting portion (24, 42, 68, 82) and covers a door lower side of the end portion of the inner weather strip. a fitting portion (24; 42; 68; 82) that is fitted into at least one of a door front-side end portion and a door rear-side end portion of an inner weather strip that is disposed at an upper portion of a door inner panel; a sound damping portion, a sealing portion (26; 46; 70; 84) that fills a gap between the inner weather strip and the door inner panel, characterized by further comprising a covering portion (32, 44, 76, 86) that is provided on the fitting portion (24, 42, 68, 82) and covers a door lower side of the end portion of the inner weather strip.
A method for image processing light data from a wedge imager, said wedge imager comprising: a wedge, a first image sensor and a second image sensor, the method comprising: inputting image data from the first image sensor, said first image sensor capturing image data of a plurality of bands from a first parity of light transmitted by the wedge imager, said wedge imager comprising a first substantially flat surface and a second substantially flat surface; inputting image data from the second image sensor, said second image sensor capturing image data of a plurality of bands from a second parity of light transmitted by said wedge imager; mapping each said band from said first parity and said second parity according to an arc segment associated with each said band to form a plurality of undistorted arc segments, each undistorted arc segment associated with one of said bands; and stitching the image of each of said undistorted arc segments together to form an image of the input at the first substantially flat surface; wherein mapping each said band further comprises: mapping the image input at x-y positions across said first substantially flat surface substantially to a wedge layout angle β representing an angle of the wedge including all bounces of light off surfaces, up to the point of escaping total internal reflection, TIR, of said first substantially flat surface for a given x-y position across said first substantially flat surface; and converting said wedge layout angle β to a sag height of the resulting arc curved imaging surface with respect to distance from said first substantially flat surface along z, the imaging surface depicting the TIR-escaped image surface for the wedge. inputting image data from the first image sensor, said first image sensor capturing image data of a plurality of bands from a first parity of light transmitted by the wedge imager, said wedge imager comprising a first substantially flat surface and a second substantially flat surface; inputting image data from the second image sensor, said second image sensor capturing image data of a plurality of bands from a second parity of light transmitted by said wedge imager; mapping each said band from said first parity and said second parity according to an arc segment associated with each said band to form a plurality of undistorted arc segments, each undistorted arc segment associated with one of said bands; and stitching the image of each of said undistorted arc segments together to form an image of the input at the first substantially flat surface; mapping the image input at x-y positions across said first substantially flat surface substantially to a wedge layout angle β representing an angle of the wedge including all bounces of light off surfaces, up to the point of escaping total internal reflection, TIR, of said first substantially flat surface for a given x-y position across said first substantially flat surface; and converting said wedge layout angle β to a sag height of the resulting arc curved imaging surface with respect to distance from said first substantially flat surface along z, the imaging surface depicting the TIR-escaped image surface for the wedge.
A method of sensor position offset error correction, comprising: receiving a temperature measurement for a region of a die from a sensor having a position offset to the region; estimating power consumed by the region of the die based at least in part on a measured activity of the region; and adjusting the temperature measurement based at least in part on the estimated power to provide a corrected temperature measurement correcting for sensor position offset error. receiving a temperature measurement for a region of a die from a sensor having a position offset to the region; estimating power consumed by the region of the die based at least in part on a measured activity of the region; and adjusting the temperature measurement based at least in part on the estimated power to provide a corrected temperature measurement correcting for sensor position offset error.
A system for the delivery of a plurality of services to at least one user location, said services including at least a television and radio service, a telephone service and a broadband or Ethernet service distributed via a common distribution network from a headend location to the at least one user location wherein the common distribution network is adapted to transmit the data in an optical format along at least a portion thereof and characterised by comprising an antenna and Low Noise Block at each head end location for providing the data for the television and radio and the broadband or Ethernet services to the headend location via a satellite transmission system and by comprising optical transceiver equipment adapted to transmit the data signals for the respective services along the common distribution network at different optical wavelengths.