mhurhangee/ep-ind-claims huggingface dataset:
A linear track scanning imaging system, comprising: - a ray generating unit comprising a plurality of ray sources (1-N), wherein the plurality of ray sources is configured to emit beams alternately and only one ray source emits a beam at a same time; - an actuating means for causing an object under examination to perform a relative movement with respect to the linear track scanning imaging system along a linear track, thereby leading the object under examination to pass through the scanning area of the linear track scanning imaging system; - a display unit for displaying a reconstructed image, - a data collecting unit configured to collect the projection data of the object under examination for each ray source (1-N) respectively; - an imaging unit configured to reconstruct a tomographic image of the object under examination based on the projection data collected for the plurality of ray sources (1-N), - the plurality of ray sources (1-N) are located in a line or a plane parallel to the moving track of the object under examination, characterized by - the beams emitted by the plurality of ray sources (1-N) are conical beams, - the ranges of ray scanning viewing angle of the plurality of ray sources are combined to constitute a continuous range of scanning viewing angle, in which continuous range there is no gap. - a ray generating unit comprising a plurality of ray sources (1-N), wherein the plurality of ray sources is configured to emit beams alternately and only one ray source emits a beam at a same time; - an actuating means for causing an object under examination to perform a relative movement with respect to the linear track scanning imaging system along a linear track, thereby leading the object under examination to pass through the scanning area of the linear track scanning imaging system; - a display unit for displaying a reconstructed image, - a data collecting unit configured to collect the projection data of the object under examination for each ray source (1-N) respectively; - an imaging unit configured to reconstruct a tomographic image of the object under examination based on the projection data collected for the plurality of ray sources (1-N), - the plurality of ray sources (1-N) are located in a line or a plane parallel to the moving track of the object under examination, characterized by - the beams emitted by the plurality of ray sources (1-N) are conical beams, - the ranges of ray scanning viewing angle of the plurality of ray sources are combined to constitute a continuous range of scanning viewing angle, in which continuous range there is no gap.
A blank for forming a mold comprising: a generally elongated primary member including at least one area for receiving a support member, a first end and a second opposite end, said first and second ends (38, 40) being configured to couple to one another; and at least one support member configured to affix to the at least one area of the primary member to provide structural support to the primary member at a desired area, wherein the generally elongated primary member in combination with the at least one support member forms a sidewall of the mold when affixed to the at least one area, wherein the blank is maintained in a ready-to-use configuration when said at least one support member is affixed to said primary member at said at least one area; and further wherein the primary member is formed having at least one crease, that said at least one area for receiving a support member is substantially aligned with, or in overlapping arrangement with, the at least one crease, that the support member is positioned directly adjacent the at least one crease so as to oppose a bias of said primary member and the length of the support member, measured parallel to the longitudinal axis L of the primary member, is generally larger than the crease; characterised in that the blank is transformable into a stowed configuration by folding the blank about the at least one crease. a generally elongated primary member including at least one area for receiving a support member, a first end and a second opposite end, said first and second ends (38, 40) being configured to couple to one another; and at least one support member configured to affix to the at least one area of the primary member to provide structural support to the primary member at a desired area, wherein the generally elongated primary member in combination with the at least one support member forms a sidewall of the mold when affixed to the at least one area, wherein the blank is maintained in a ready-to-use configuration when said at least one support member is affixed to said primary member at said at least one area; and further wherein the primary member is formed having at least one crease, that said at least one area for receiving a support member is substantially aligned with, or in overlapping arrangement with, the at least one crease, that the support member is positioned directly adjacent the at least one crease so as to oppose a bias of said primary member and the length of the support member, measured parallel to the longitudinal axis L of the primary member, is generally larger than the crease; characterised in that the blank is transformable into a stowed configuration by folding the blank about the at least one crease.
Drive device for a hybrid electric bicycle operated electromotively and by muscular force comprising a drive housing rigidly connected to a bicycle frame, a bottom bracket shaft rotatably arranged in the drive housing, wherein a pedal crank (50, 54) is respectively arranged at the two ends of the bottom bracket shaft for rotation therewith, a summing hollow shaft rotatably supported in the drive housing, wherein the summing hollow shaft is directly connected to the bottom bracket shaft via a cyclist's freewheel and, via a motor freewheel, to a gear driven by an electric motor, and wherein the summing hollow shaft is connected to a chain wheel for rotation therewith, and a sensor assembly fixedly arranged in the drive housing, wherein the sensor assembly comprises a first torque sensor that cooperates with the bottom bracket shaft, characterized in that the sensor assembly comprises a second torque sensor that cooperates with the summing hollow shaft.
An intra-train network management system for a train comprising up to three train units coupled together to form a train, each train unit comprising two terminal cars and zero or more intermediate cars between the terminal cars, the intra-train network management system comprising: a communications interface unit in each terminal car configured to establish at least two separate Communications-Based Train Control, CBTC, peer-to-peer networks within its associated train unit, wherein each network connects to distinct nodes within the train unit, and wherein the separate networks of coupled train units are crossed over between train units; and a gateway associated with each terminal car for linking the respective networks of separate train units coupled into a train; and wherein the network management system is configured to determine network topology within the train by sending: a) global device discovery messages throughout the networks, and b) local discovery messages within each train unit that are addressed such that they cannot penetrate the gateway(s) associated with that train unit; wherein an on-board controller unit is configured to build routing tables based on the determined network topology and to set a subnet mask of the local discovery messages to a value that will not penetrate the local gateway. a communications interface unit in each terminal car configured to establish at least two separate Communications-Based Train Control, CBTC, peer-to-peer networks within its associated train unit, wherein each network connects to distinct nodes within the train unit, and wherein the separate networks of coupled train units are crossed over between train units; and a gateway associated with each terminal car for linking the respective networks of separate train units coupled into a train; and wherein the network management system is configured to determine network topology within the train by sending: a) global device discovery messages throughout the networks, and b) local discovery messages within each train unit that are addressed such that they cannot penetrate the gateway(s) associated with that train unit; a) global device discovery messages throughout the networks, and b) local discovery messages within each train unit that are addressed such that they cannot penetrate the gateway(s) associated with that train unit; wherein an on-board controller unit is configured to build routing tables based on the determined network topology and to set a subnet mask of the local discovery messages to a value that will not penetrate the local gateway.
A coordinating node of a network, the coordinating node comprising: processing circuitry; and memory including instructions, which when executed by the processing circuitry, cause the processing circuitry to perform operations including: receiving a first packet including a compute task and a reference to a second packet; wherein the first packet includes a context including the reference that defines a relationship between the first packet and the second packet; identifying a destination node for the first packet; determining a first route for the first packet to the destination node, the first route including an intermediary node determined based on available resources at the intermediary node to execute the compute task of the first packet at the intermediary node; determining a second route for the second packet to the destination node based on the reference, the second route including the intermediary node; and forwarding the first packet to a next node along the first route; forwarding the second packet to a next node of the second route, the next node of the first route being a different node than the next node of the second route. processing circuitry; and memory including instructions, which when executed by the processing circuitry, cause the processing circuitry to perform operations including: receiving a first packet including a compute task and a reference to a second packet; wherein the first packet includes a context including the reference that defines a relationship between the first packet and the second packet; identifying a destination node for the first packet; determining a first route for the first packet to the destination node, the first route including an intermediary node determined based on available resources at the intermediary node to execute the compute task of the first packet at the intermediary node; determining a second route for the second packet to the destination node based on the reference, the second route including the intermediary node; and forwarding the first packet to a next node along the first route; forwarding the second packet to a next node of the second route, the next node of the first route being a different node than the next node of the second route. receiving a first packet including a compute task and a reference to a second packet; wherein the first packet includes a context including the reference that defines a relationship between the first packet and the second packet; identifying a destination node for the first packet; determining a first route for the first packet to the destination node, the first route including an intermediary node determined based on available resources at the intermediary node to execute the compute task of the first packet at the intermediary node; determining a second route for the second packet to the destination node based on the reference, the second route including the intermediary node; and forwarding the first packet to a next node along the first route; forwarding the second packet to a next node of the second route, the next node of the first route being a different node than the next node of the second route.
A pneumatic tire comprising a pair of bead portions each having a bead core embedded therein, a pair of sidewall portions extending radially outwardly from bead portions, a tread portion extending across both side wall portions, an annular outer decorative portion arranged radially outward and formed without unevenness by means of printing on a side portion consisting of the sidewall and bead portions (2, 3), and an annular inner decorative portion arranged radially inward of the outer decorative portion and formed without unevenness by means of printing on the side portion, wherein the inner decorative portion is provided at least with decoration in which first inner elements and second inner elements are alternately arrayed in a circumferential direction of the tire, the outer decorative portion is provided with decoration different from the decoration provided on the inner decorative portion, each of the second inner elements is larger than each of the first inner elements in width in the circumferential direction of the tire, and the inner decorative portion has a gradation region having value in the HSV color system gradually increasing toward an inner edge in the radial direction of the tire.
A compound represented by formula: wherein R 1 is C1-C3 alkyl n 1 is 1; n 2 is 1; Z 1 is a hydrogen atom; Z 2 is a hydrogen atom; A 1 and A 2 are, the same or different, linear or branched C8-C20 alkylene or C8-C20 alkenylene; M 1 and M 2 are, the same or different, selected from the group consisting of -OC -, and -C O- B 1 and B 2 are, the same or different, linear or branched C1-C16 alkyl or C2-C16 alkenyl or a pharmaceutically acceptable salt thereof. wherein R 1 is C1-C3 alkyl n 1 is 1; n 2 is 1; Z 1 is a hydrogen atom; Z 2 is a hydrogen atom; A 1 and A 2 are, the same or different, linear or branched C8-C20 alkylene or C8-C20 alkenylene; M 1 and M 2 are, the same or different, selected from the group consisting of -OC -, and -C O- B 1 and B 2 are, the same or different, linear or branched C1-C16 alkyl or C2-C16 alkenyl
A base station configured to communicate with a communication apparatus, the base station comprising: means for transmitting towards a core network, a message for the communication apparatus, wherein the message includes at least information identifying if the base station is a hybrid access mode base station; and means for receiving a message comprising an identifier for identifying a mobile communications device from the communication apparatus, based on the information identifying if the base station is a hybrid access mode base station. means for transmitting towards a core network, a message for the communication apparatus, wherein the message includes at least information identifying if the base station is a hybrid access mode base station; and means for receiving a message comprising an identifier for identifying a mobile communications device from the communication apparatus, based on the information identifying if the base station is a hybrid access mode base station.
A method for synchronizing several equipments EQi each comprising a clock Hi adjusted to a crystal oscillator, said equipments EQi communicating with each other using a communication protocol, the equipments being configured to deliver a command signal to a device, comprising at least the following steps for a synchronization cycle: • At each equipment generating the command signal, computing a value of difference ΔH existing between a reference clock value Hm and the local clock Hi of an equipment, by comparing the value of the clock signal at a given time for the equipment to the value of the clock signal for the reference clock, • On detecting a phase shift ΔH between the reference clock value and the value of a local clock, the method is, in addition, characterized by the following steps: • when the value of the phase shift ΔH between the local clock and the reference clock corresponds to a refresh cycle of the reference clock Hm, a corrected clock time Hic is defined by repeating a number of the clock pulse of given parity if the value of the local clock is early and a corrected clock time is defined by skipping one number of the clock signal of opposite parity to the first parity if the local clock value is late, • when the value of the phase shift ΔH is higher than a refresh cycle, resetting the reference time, • Then using a corrected value of the clock in each equipment to emit the command signal. • At each equipment generating the command signal, computing a value of difference ΔH existing between a reference clock value Hm and the local clock Hi of an equipment, by comparing the value of the clock signal at a given time for the equipment to the value of the clock signal for the reference clock, • On detecting a phase shift ΔH between the reference clock value and the value of a local clock, the method is, in addition, characterized by the following steps: • when the value of the phase shift ΔH between the local clock and the reference clock corresponds to a refresh cycle of the reference clock Hm, a corrected clock time Hic is defined by repeating a number of the clock pulse of given parity if the value of the local clock is early and a corrected clock time is defined by skipping one number of the clock signal of opposite parity to the first parity if the local clock value is late, • when the value of the phase shift ΔH is higher than a refresh cycle, resetting the reference time, • Then using a corrected value of the clock in each equipment to emit the command signal.
A force sensor comprising: a substrate including a proximal portion and a distal portion, the distal portion including a proximally-facing surface in fluid communication with a distal surface of the distal portion via an opening extending therebetween, the distal surface having a distal load contact area and a sensing area; wherein the proximal and distal portions of the substrate are stepped relative to each other, and the proximally-facing surface of the distal portion extends laterally from a side of the proximal portion; a plurality of sensing elements mounted on the sensing area of the distal surface of the substrate; characterized by: a distal plate welded to the distal surface of the substrate, hermetically sealing the plurality of sensing elements between the distal plate and the distal surface of the substrate; a pin block assembly including a plurality of conductive pins, the pin block assembly welded to the proximally-facing surface of the distal portion of the substrate, hermetically sealing distal ends of the plurality of conductive pins between the pin block assembly and the proximally-facing surface of the distal portion; and wires, passed through the opening, connecting the sensing elements to the distal ends of the plurality of conductive pins. a substrate including a proximal portion and a distal portion, the distal portion including a proximally-facing surface in fluid communication with a distal surface of the distal portion via an opening extending therebetween, the distal surface having a distal load contact area and a sensing area; wherein the proximal and distal portions of the substrate are stepped relative to each other, and the proximally-facing surface of the distal portion extends laterally from a side of the proximal portion; a plurality of sensing elements mounted on the sensing area of the distal surface of the substrate; characterized by: a distal plate welded to the distal surface of the substrate, hermetically sealing the plurality of sensing elements between the distal plate and the distal surface of the substrate; a pin block assembly including a plurality of conductive pins, the pin block assembly welded to the proximally-facing surface of the distal portion of the substrate, hermetically sealing distal ends of the plurality of conductive pins between the pin block assembly and the proximally-facing surface of the distal portion; and wires, passed through the opening, connecting the sensing elements to the distal ends of the plurality of conductive pins.
A temperature indicator, comprising: a liquid crystal structure which further comprises: a top layer; a bottom layer; a liquid crystal layer positioned between said top layer and said bottom layer containing temperature sensitive liquid crystals; and a mask positioned on said top layer; said temperature indicator characterised in that said mask is comprised of a first mask portion and a second mask portion, said first mask portion is a first colour filter that is coloured a first colour and the second mask portion is a second colour filter that is coloured a second colour, wherein most of the blue colour range and most of the purple colour range reflected off the temperature sensitive liquids crystals are filtered out by both the first colour filter and the second colour filter, thereby reducing the colour display range of the liquid crystal layer; and wherein the first colour of the first mask portion and second colour of the second mask portion are chosen so that a contrast is created between the colour that emerges from the first mask portion and the colour that emerges from the second mask portion when the liquid crystal layer reflects a certain colour determined by the temperature of the liquid crystal. a liquid crystal structure which further comprises: a top layer; a bottom layer; a liquid crystal layer positioned between said top layer and said bottom layer containing temperature sensitive liquid crystals; and a top layer; a bottom layer; a liquid crystal layer positioned between said top layer and said bottom layer containing temperature sensitive liquid crystals; and a mask positioned on said top layer; said temperature indicator characterised in that said mask is comprised of a first mask portion and a second mask portion, said first mask portion is a first colour filter that is coloured a first colour and the second mask portion is a second colour filter that is coloured a second colour, wherein most of the blue colour range and most of the purple colour range reflected off the temperature sensitive liquids crystals are filtered out by both the first colour filter and the second colour filter, thereby reducing the colour display range of the liquid crystal layer; and wherein the first colour of the first mask portion and second colour of the second mask portion are chosen so that a contrast is created between the colour that emerges from the first mask portion and the colour that emerges from the second mask portion when the liquid crystal layer reflects a certain colour determined by the temperature of the liquid crystal.