mhurhangee/ep-ind-claims huggingface dataset:
A voice coil motor, wherein the voice coil motor comprises a first magnetic piece, a second magnetic piece, a third magnetic piece, and a counterweight that are radially arranged around an optical carrier sequentially; the voice coil motor further comprises first coils that are symmetrically fastened on two sides of the optical carrier, wherein the first coils comprise a coil and a further coil, the coil is disposed opposite to the first magnetic piece, and the further coil is disposed opposite to the third magnetic piece; the voice coil motor further comprises a first magnetic sensor and a first induction magnet that are oppositely disposed, wherein the first magnetic sensor is disposed on a side that is of the counterweight and that is close to the optical carrier, and the first induction magnet is fastened on an outer wall that is of the optical carrier and that is close to the counterweight; and the first coils are configured to drive the optical carrier to move in a direction of an optical axis with the first induction magnet, and the first magnetic sensor is configured to convert a magnetic field signal generated by the first induction magnet into a first electrical signal, characterized in that one surface of the first magnetic sensor is mounted on the counterweight; or the first magnetic sensor is fastened on the counterweight by using a support part. the voice coil motor further comprises first coils that are symmetrically fastened on two sides of the optical carrier, wherein the first coils comprise a coil and a further coil, the coil is disposed opposite to the first magnetic piece, and the further coil is disposed opposite to the third magnetic piece; the voice coil motor further comprises a first magnetic sensor and a first induction magnet that are oppositely disposed, wherein the first magnetic sensor is disposed on a side that is of the counterweight and that is close to the optical carrier, and the first induction magnet is fastened on an outer wall that is of the optical carrier and that is close to the counterweight; and the first coils are configured to drive the optical carrier to move in a direction of an optical axis with the first induction magnet, and the first magnetic sensor is configured to convert a magnetic field signal generated by the first induction magnet into a first electrical signal, characterized in that one surface of the first magnetic sensor is mounted on the counterweight; or the first magnetic sensor is fastened on the counterweight by using a support part.
A method of producing a composition of matter for treating a wound comprising: (a) contacting a solution of recombinant collagen with Na 2 HPO 4 so as to generate fibrillated collagen, wherein said Na 2 HPO 4 is present in said solution at a concentration between 16.2mM - 20.25 mM; (b) crosslinking said fibrillated collagen with N-ethyl-N'-[3-dimethylaminopropyl] carbodiimide to generate crosslinked, fibrillated collagen; (c) generating a mixture of said crosslinked, fibrillated collagen and inorganic salt; and (d) contacting said mixture with platelet rich plasma thereby producing the composition of matter for treating a wound. (a) contacting a solution of recombinant collagen with Na 2 HPO 4 so as to generate fibrillated collagen, wherein said Na 2 HPO 4 is present in said solution at a concentration between 16.2mM - 20.25 mM; (b) crosslinking said fibrillated collagen with N-ethyl-N'-[3-dimethylaminopropyl] carbodiimide to generate crosslinked, fibrillated collagen; (c) generating a mixture of said crosslinked, fibrillated collagen and inorganic salt; and (d) contacting said mixture with platelet rich plasma thereby producing the composition of matter for treating a wound.
A resin composition comprising (a) a polypropylene-based resin, (b) a polyphenylene ether-based resin, and (c) a first hydrogenated block copolymer-based resin, and further comprising (d) an ethylene-α-olefin copolymer rubber and/or (e) a second hydrogenated block copolymer-based resin, wherein each of the components (c) and (e) is a hydrogenated block copolymer prepared by hydrogenating a block copolymer comprising at least one polymer block A composed mainly of a vinyl aromatic compound and at least one polymer block B composed mainly of a conjugated diene compound, and/or a modified product of the hydrogenated block copolymer, a total ratio of a 1, 2-vinyl bond and a 3, 4-vinyl bond to all bonds in the conjugated diene compound units in the block copolymer before hydrogenation of the hydrogenated block copolymer-based resin (c), which is measured by applying the block copolymer before hydrogenation of the hydrogenated block copolymer-based resin to an infrared spectrophotometer and calculated by the Hampton technique, is 45 to 90%, the component (c) comprises 30 to 50% by mass of the vinyl aromatic compound units, which is measured by applying the hydrogenated block copolymer-based resin to an ultraviolet spectrophotometer, a total ratio of a 1, 2-vinyl bond and a 3, 4-vinyl bond to all bonds in the conjugated diene compound units in the block copolymer before hydrogenation of the hydrogenated block copolymer-based resin (e), which is measured by applying the block copolymer before hydrogenation of the hydrogenated block copolymer-based resin to an infrared spectrophotometer and calculated by the Hampton technique, is 25% or more and less than 60%, a rate of hydrogenation of ethylenic double bonds (double bonds in the conjugated diene compound units) in the block copolymer in the component (c), which is measured by applying the hydrogenated block copolymer-based resin to nuclear magnetic resonance is 80 to 100%, and a rate of hydrogenation of ethylenic double bonds (double bonds in the conjugated diene compound units) in the block copolymer in the component (e), which is measured by applying the hydrogenated block copolymer-based resin to nuclear magnetic resonance is 10% or higher and lower than 80%.
A transmitter for a Pulsed Eddy Current, PEC, system, configured to generate a changing electromagnetic field which induces eddy currents in an object of an electrically conductive material arranged within the electromagnetic field, the transmitter comprising a switching device and a transmitter coil configured to be connected to a voltage source, the switching device being arranged for switching a current generated by the voltage source through the transmitter coil, wherein the transmitter coil comprises a plurality of parallel electrically conductive coil layers, connected in parallel to each other, with a respective damping resistor connected across each of the coil layers, each of the coil layers being connected in series with a respective diode.
An electronic device comprising: a power unit comprising a housing having a cylindrical outer appearance and being configured to accommodate a battery; a communication unit configured to wirelessly communicate with an external device; a printer unit comprising a cylindrical case having a cylindrical outer appearance and being configured to accommodate a printer mechanical unit, a gear unit and a motor, wherein the mechanical unit, the gear unit and the motor are connected to be coaxial with respect to the cylindrical case, wherein the printer unit prints print data received from the external device through the communication unit on a recording sheet; and a connection unit configured to mechanically connect the power unit and the printer unit to each other and being configured to be bent at an axis thereof so as to bend the electronic device at the axis, wherein the electronic device is switchable between a first state in which the power unit and the printer unit are linearly aligned, and a second state in which the electronic device is bent at the axis; and an outer appearance of the electronic device in the first state is a cylindrical shape, wherein the electronic device further comprises a hinge spring provided in the connection unit and being configured to retain the position of the electronic device in the second state. a power unit comprising a housing having a cylindrical outer appearance and being configured to accommodate a battery; a communication unit configured to wirelessly communicate with an external device; a printer unit comprising a cylindrical case having a cylindrical outer appearance and being configured to accommodate a printer mechanical unit, a gear unit and a motor, wherein the mechanical unit, the gear unit and the motor are connected to be coaxial with respect to the cylindrical case, wherein the printer unit prints print data received from the external device through the communication unit on a recording sheet; and a connection unit configured to mechanically connect the power unit and the printer unit to each other and being configured to be bent at an axis thereof so as to bend the electronic device at the axis, wherein the electronic device is switchable between a first state in which the power unit and the printer unit are linearly aligned, and a second state in which the electronic device is bent at the axis; and an outer appearance of the electronic device in the first state is a cylindrical shape, wherein the electronic device further comprises a hinge spring provided in the connection unit and being configured to retain the position of the electronic device in the second state.
An annealing device comprising: a heating unit configured for heating a surface of an annealing object to temporarily melt an outer layer portion; a sensor configured for detecting thermal radiation light from the annealing object heated by the heating unit; and a processing unit configured for estimating an annealing result of the annealing object on the basis of a waveform showing a temporal change in an intensity of the thermal radiation light detected by the sensor, characterized in that the waveform includes a peak (P1, P2) corresponding to a start of melting and a peak corresponding to complete solidification, and the processing unit is configured for estimating a melting depth of the outer layer portion of the annealing object on the basis of a melting time from the peak (P1, P2) to the peak. a heating unit configured for heating a surface of an annealing object to temporarily melt an outer layer portion; a sensor configured for detecting thermal radiation light from the annealing object heated by the heating unit; and a processing unit configured for estimating an annealing result of the annealing object on the basis of a waveform showing a temporal change in an intensity of the thermal radiation light detected by the sensor, characterized in that the waveform includes a peak (P1, P2) corresponding to a start of melting and a peak corresponding to complete solidification, and the processing unit is configured for estimating a melting depth of the outer layer portion of the annealing object on the basis of a melting time from the peak (P1, P2) to the peak.
A method for constructing a sequencing plan for a plurality of tasks (Tp, Tc) to be executed on a real-time system implemented off-line by a developing tool from a formalised definition of the tasks according to which each task (Tp, Tc) is decomposed into a sequence of frames, wherein each frame is associated with an elementary process (Tp(m)) having an execution need (Bp(m)), and defines a start date (Dp(m)) from which the process can start and an end date (Dp(m+1)), or deadline, at which the process must complete; associating respective order constraints to process pairs (Tp(m), Tc(n)); projecting the dates on a time scale associated with an execution unit of the real-time system, thus forming a sequence of time slots; sequentially parsing the time slots of the sequence; identifying eligible processes within a current time slot, a process being eligible if it meets the following two criteria: it is executable in the current slot, and if it has an order constraint, the process referenced by the order constraint is also executable in the current time slot, or the deadline of the referenced process is in a previous time slot; sorting the eligible processes in a list by order of increasing deadlines; modifying the list to reorder the processes according to their order constraints; distributing the execution needs of the eligible processes in the current time slot in the order of the list to build the sequencing plan; and producing the sequencing plan in a format suitable for configuring the real-time system. associating respective order constraints to process pairs (Tp(m), Tc(n)); projecting the dates on a time scale associated with an execution unit of the real-time system, thus forming a sequence of time slots; sequentially parsing the time slots of the sequence; identifying eligible processes within a current time slot, a process being eligible if it meets the following two criteria: it is executable in the current slot, and if it has an order constraint, the process referenced by the order constraint is also executable in the current time slot, or the deadline of the referenced process is in a previous time slot; it is executable in the current slot, and if it has an order constraint, the process referenced by the order constraint is also executable in the current time slot, or the deadline of the referenced process is in a previous time slot; sorting the eligible processes in a list by order of increasing deadlines; modifying the list to reorder the processes according to their order constraints; distributing the execution needs of the eligible processes in the current time slot in the order of the list to build the sequencing plan; and producing the sequencing plan in a format suitable for configuring the real-time system.
A method of determining an effective flow area of a manufactured first vane segment for a turbine or a turbine engine, the method comprising: determining an effective flow area of the first vane segment for the turbine by: providing an optical scan of a manufactured first vane creating a virtual vane based on the scan; providing an optical scan of a manufactured second vane creating a second virtual vane based on the scan; creating a virtual vane segment based on the virtual vane and the second virtual vane; determining at least one chokepoint of the virtual vane segment, the or each chokepoint referring to one or more areas or points of a vane that restrict the effective flow area between the vanes, and wherein one or more sections are used to create the or each chokepoint to determine the effective flow area; and, calculating a virtual vane segment effective flow area based at least in part on the at least one chokepoint. providing an optical scan of a manufactured first vane creating a virtual vane based on the scan; providing an optical scan of a manufactured second vane creating a second virtual vane based on the scan; creating a virtual vane segment based on the virtual vane and the second virtual vane; determining at least one chokepoint of the virtual vane segment, the or each chokepoint referring to one or more areas or points of a vane that restrict the effective flow area between the vanes, and wherein one or more sections are used to create the or each chokepoint to determine the effective flow area; and, calculating a virtual vane segment effective flow area based at least in part on the at least one chokepoint.
A user equipment comprising means for: participating, for a network slice of a network, in a slice-specific authentication and authorization procedure for the user equipment; wherein the participating comprises: receiving, from the network, a slice-specific authentication command message; creating a slice-specific authentication complete message; and sending, to the network, the slice-specific authentication complete message; and receiving, from the network, a slice-specific authentication result message, the slice-specific authentication result message comprising an information element indicating to a mobility management sub-layer of the user equipment a result of the slice-specific authentication and authorization procedure, and the message comprising single network slice selection assistance information for the user equipment, the single network slice selection assistance information relating to the network slice; wherein the user equipment further comprises means for proceeding with a deregistration procedure and ignoring the slice-specific authentication command message when the slice-specific authentication command message is received after sending a deregistration request message and when an access type included in the deregistration request message is the same as an access type for which the slice-specific authentication command message is received. participating, for a network slice of a network, in a slice-specific authentication and authorization procedure for the user equipment; wherein the participating comprises: receiving, from the network, a slice-specific authentication command message; creating a slice-specific authentication complete message; and sending, to the network, the slice-specific authentication complete message; and receiving, from the network, a slice-specific authentication command message; creating a slice-specific authentication complete message; and sending, to the network, the slice-specific authentication complete message; and receiving, from the network, a slice-specific authentication result message, the slice-specific authentication result message comprising an information element indicating to a mobility management sub-layer of the user equipment a result of the slice-specific authentication and authorization procedure, and the message comprising single network slice selection assistance information for the user equipment, the single network slice selection assistance information relating to the network slice; wherein the user equipment further comprises means for proceeding with a deregistration procedure and ignoring the slice-specific authentication command message when the slice-specific authentication command message is received after sending a deregistration request message and when an access type included in the deregistration request message is the same as an access type for which the slice-specific authentication command message is received.
A positive active material for a rechargeable lithium battery, comprising a core comprising a compound capable of intercalating and deintercalating lithium, wherein the compound is a lithium nickel cobalt aluminum oxide, a lithium nickel cobalt manganese oxide, or a combination thereof; and a lithium metal phosphate on the surface of the core, wherein the lithium metal phosphate is different from the compound capable of intercalating and deintercalating lithium and is represented by Chemical Formula 3: Chemical Formula 3 Li 1+(x+y) In x M y Ti 2-(x+y) (PO 4) 3 wherein, in Chemical Formula 3, M is Al, Y, Sc, Mg, or a combination thereof, 0<x≤0.5, and 0.1≤y≤0.2, wherein the lithium metal phosphate is included in an amount of 0.01 parts by weight to 20 parts by weight based on 100 parts by weight of the compound capable of intercalating and deintercalating lithium.
Forklift having a cabin and a seat for use by a driver arranged in said cabin, said cabin having a lateral opening to enter and exit said cabin, wherein said seat is mounted rotatably relative to the cabin and wherein there is provided a safety bracket for preventing said driver from involuntarily exiting said cabin through said lateral opening and for providing lateral impact protection, characterized in that said safety bracket extends at least from a sitting surface of said seat to an upper end of a backrest of said seat, said safety bracket is mechanically connected to said seat to be rotatable together with said seat, wherein the seat and the safety bracket are jointly rotatable with respect to a substantially vertical axis, wherein said seat is rotatable between a first position in which entry and exit of said cabin is facilitated and a second position in which said seat is oriented substantially in a forward driving position.
A method (30, 40) of detecting a threat to a vehicle, said threat being a detonation of a land mine buried beneath a surface on which the vehicle traverses, wherein the method (30, 40) comprises: receiving electromagnetic signals (32, 42), or data indicative thereof, via a suitable electromagnetic detector arrangement mounted to the vehicle; receiving optical signals (32, 42), or data indicative thereof, via a suitable optical sensor arrangement comprising a suitable optical sensor in the form of a circuit comprising a suitable photodiode positioned under the vehicle; and generating a threat detect output signal (38, 62) in response to receiving an optical signal indicative of a threat in a pre-determined window period subsequent to receiving an electromagnetic signal indicative of a threat. receiving electromagnetic signals (32, 42), or data indicative thereof, via a suitable electromagnetic detector arrangement mounted to the vehicle; receiving optical signals (32, 42), or data indicative thereof, via a suitable optical sensor arrangement comprising a suitable optical sensor in the form of a circuit comprising a suitable photodiode positioned under the vehicle; and generating a threat detect output signal (38, 62) in response to receiving an optical signal indicative of a threat in a pre-determined window period subsequent to receiving an electromagnetic signal indicative of a threat.
A universal pipe sleeve junction (100, 200, 328, 428, 536, 636, 740, 840) for an aspirated smoke detection system, comprising: a sleeve body (102, 202) having an outer surface and an inner surface (106, 206), the inner surface (106, 206) defining an opening through the sleeve body (102, 202), wherein the sleeve body (102, 202) further includes: a first end surface (108, 208, 308, 408, 508, 608, 708, 808); and a second end surface (110, 210, 310, 410, 510, 610, 710, 810) opposite the first end surface (108, 208, 308, 408, 508, 608, 708, 808); a nozzle (112, 212) having an outer surface (114, 214) and an inner surface (116, 216), the inner surface (116, 216) of the nozzle (112, 212) defining an opening (118, 218) through the nozzle (112, 212) and extending through to the inner surface (106, 206) of the sleeve body (102, 202); and a calibrated sampling point cap (332, 432) coupled to the opening (118, 218) through the nozzle (112, 212) and having an annulus such that a negative pressure inside the sleeve body (102, 202) is to cause gas located outside the universal pipe sleeve junction (100, 200, 328, 428, 536, 636, 740, 840) to flow through the annulus into the universal pipe sleeve junction (100, 200, 328, 428, 536, 636, 740, 840) for smoke testing. a sleeve body (102, 202) having an outer surface and an inner surface (106, 206), the inner surface (106, 206) defining an opening through the sleeve body (102, 202), wherein the sleeve body (102, 202) further includes: a first end surface (108, 208, 308, 408, 508, 608, 708, 808); and a second end surface (110, 210, 310, 410, 510, 610, 710, 810) opposite the first end surface (108, 208, 308, 408, 508, 608, 708, 808); a first end surface (108, 208, 308, 408, 508, 608, 708, 808); and a second end surface (110, 210, 310, 410, 510, 610, 710, 810) opposite the first end surface (108, 208, 308, 408, 508, 608, 708, 808); a nozzle (112, 212) having an outer surface (114, 214) and an inner surface (116, 216), the inner surface (116, 216) of the nozzle (112, 212) defining an opening (118, 218) through the nozzle (112, 212) and extending through to the inner surface (106, 206) of the sleeve body (102, 202); and a calibrated sampling point cap (332, 432) coupled to the opening (118, 218) through the nozzle (112, 212) and having an annulus such that a negative pressure inside the sleeve body (102, 202) is to cause gas located outside the universal pipe sleeve junction (100, 200, 328, 428, 536, 636, 740, 840) to flow through the annulus into the universal pipe sleeve junction (100, 200, 328, 428, 536, 636, 740, 840) for smoke testing.