mhurhangee/ep-ind-claims huggingface dataset:
A surge arrester unit, comprising: a housing having a hollow core; a plurality of metal oxide non-linear resistor blocks stacked one on top of the other within the hollow core of the housing; and at least one sensor assembly having a temperature assembly with a temperature sensor positioned within the housing, wherein the at least one sensor assembly is positioned between two of the plurality of blocks, wherein the at least one sensor assembly is characterised by further comprising: a first thermally and electrically conductive plate (52, 54); a second thermally and electrically conductive plate (52, 54); and a heat absorption member positioned between the first and second plates (52, 54), wherein the heat absorption member is cylindrical in shape and has a diameter that is less than the diameter of the first and second plates (52, 54), wherein the heat absorption member is made of a thermally and electrically conductive material, wherein the temperature assembly is secured to the heat absorption member to sense a temperature of the heat absorption member and transmit a measured temperature. a housing having a hollow core; a plurality of metal oxide non-linear resistor blocks stacked one on top of the other within the hollow core of the housing; and at least one sensor assembly having a temperature assembly with a temperature sensor positioned within the housing, wherein the at least one sensor assembly is positioned between two of the plurality of blocks, wherein the at least one sensor assembly is characterised by further comprising: a first thermally and electrically conductive plate (52, 54); a second thermally and electrically conductive plate (52, 54); and a heat absorption member positioned between the first and second plates (52, 54), wherein the heat absorption member is cylindrical in shape and has a diameter that is less than the diameter of the first and second plates (52, 54), wherein the heat absorption member is made of a thermally and electrically conductive material, wherein the temperature assembly is secured to the heat absorption member to sense a temperature of the heat absorption member and transmit a measured temperature. a first thermally and electrically conductive plate (52, 54); a second thermally and electrically conductive plate (52, 54); and a heat absorption member positioned between the first and second plates (52, 54), wherein the heat absorption member is cylindrical in shape and has a diameter that is less than the diameter of the first and second plates (52, 54), wherein the heat absorption member is made of a thermally and electrically conductive material, wherein the temperature assembly is secured to the heat absorption member to sense a temperature of the heat absorption member and transmit a measured temperature.
Plasma torch, preferably a plasma cutting torch, in which a plasma gas (PG1 and/or PG2) is guided by way of at least one infeed (34, 35) through a housing of the plasma torch up to a nozzle opening, and at least one valve (31, 32, 51, 52) for opening and closing the respective infeed (34, 35) is present on the at least one infeed (34, 35), and a cavity that is connected to the infeed(s) (34, 35) is present within the housing, characterized in that a further valve is disposed on an opening on the cavity, said further valve opening and closing the opening, by way of which valve a discharge of plasma gas (PG1 and/or PG2) from the infeed(s) (34, 35) up to the nozzle opening is achievable in the opened state of said valve.
A method of communicating in a wireless network, the method comprising: communicating, by a network element, a frame, which is a special, non-data packet consisting of: a first short training field, a first long training field, and a first signaling field comprising a first duration field, and a first address of a station; wherein the first signaling field further comprises a first packet type field, wherein the first packet type field comprises: a first part indicating the packet is a special type packet; and a second part indicating a specific special packet type the packet is. a first short training field, a first long training field, and a first signaling field comprising a first duration field, and a first address of a station; wherein the first signaling field further comprises a first packet type field, a first duration field, and a first address of a station; a first part indicating the packet is a special type packet; and a second part indicating a specific special packet type the packet is.
A processor comprising: a plurality of cores (120, 120n), wherein each of the plurality of cores comprises a multithreaded core adapted to concurrently execute a plurality of threads; and a control circuit adapted to concurrently enable at least one of the plurality of cores to operate in a single-threaded mode and at least one other of the plurality of cores to operate in a multi-threaded mode; and characterized by: a configuration storage adapted to store an enable indicator for each of the plurality of cores to indicate whether the core is enabled to operate in the multi-threaded mode, the enable indicator for each of the plurality of cores statically configured by a manufacturer of the processor. a plurality of cores (120, 120n), wherein each of the plurality of cores comprises a multithreaded core adapted to concurrently execute a plurality of threads; and a control circuit adapted to concurrently enable at least one of the plurality of cores to operate in a single-threaded mode and at least one other of the plurality of cores to operate in a multi-threaded mode; and characterized by: a configuration storage adapted to store an enable indicator for each of the plurality of cores to indicate whether the core is enabled to operate in the multi-threaded mode, the enable indicator for each of the plurality of cores statically configured by a manufacturer of the processor.
A power consumption grading method for a network-based power supply system, wherein the network-based power supply system comprises power sourcing equipment and a powered device, the power sourcing equipment supplies power to the powered device over a network, and the method comprises: when the powered device detects that power overload protection for the power sourcing equipment is not triggered, starting, by the powered device, a plurality of power modules (P0...PN) of the powered device one by one in a specific order until all the plurality of power modules (P0...PN) are started or the powered device detects that the power overload protection for the power sourcing equipment is triggered after a specific power module is started, wherein the powered device detects, based on a voltage signal and a current signal that are received from the network, whether the power overload protection for the power sourcing equipment is triggered; when the powered device detects that the power overload protection for the power sourcing equipment is triggered, selecting, by the network-based power supply system according to the specific order and based on the specific power module, one or more of the plurality of power modules as a power module combination of the powered device; when all the plurality of power modules (P0...PN) are started, selecting, by the network-based power supply system, the plurality of power modules (P0...PN) as the power module combination; and determining, by the network-based power supply system, a load power of the powered device and a corresponding power consumption level based on the power module combination. when the powered device detects that power overload protection for the power sourcing equipment is not triggered, starting, by the powered device, a plurality of power modules (P0...PN) of the powered device one by one in a specific order until all the plurality of power modules (P0...PN) are started or the powered device detects that the power overload protection for the power sourcing equipment is triggered after a specific power module is started, wherein the powered device detects, based on a voltage signal and a current signal that are received from the network, whether the power overload protection for the power sourcing equipment is triggered; when the powered device detects that the power overload protection for the power sourcing equipment is triggered, selecting, by the network-based power supply system according to the specific order and based on the specific power module, one or more of the plurality of power modules as a power module combination of the powered device; when all the plurality of power modules (P0...PN) are started, selecting, by the network-based power supply system, the plurality of power modules (P0...PN) as the power module combination; and determining, by the network-based power supply system, a load power of the powered device and a corresponding power consumption level based on the power module combination.
A regulator assembly for a portable pressurised gas cylinder, the regulator assembly comprising: - a first stage regulator having: a first inlet configured to receive high pressure gas from the cylinder, a first regulator element for reducing the pressure of the gas in the first stage regulator and a first outlet for outputting the gas at a regulated pressure characterised in - a second stage regulator having: a second inlet configured to receive gas at the regulated pressure, a second regulator element for further reducing the pressure of the gas in the second stage regulator and a second outlet for outputting gas at an outlet pressure which is lower than the regulated pressure; and - a pilot regulator configured to receive gas at the regulated pressure from the first stage regulator, the pilot regulator being controllable by an actuator to set a pilot pressure, the pilot pressure being communicated to the second stage regulator to set the outlet pressure delivered by the second stage regulator. - a first stage regulator having: a first inlet configured to receive high pressure gas from the cylinder, a first regulator element for reducing the pressure of the gas in the first stage regulator and a first outlet for outputting the gas at a regulated pressure characterised in a first inlet configured to receive high pressure gas from the cylinder, a first regulator element for reducing the pressure of the gas in the first stage regulator and a first outlet for outputting the gas at a regulated pressure characterised in - a second stage regulator having: a second inlet configured to receive gas at the regulated pressure, a second regulator element for further reducing the pressure of the gas in the second stage regulator and a second outlet for outputting gas at an outlet pressure which is lower than the regulated pressure; and a second inlet configured to receive gas at the regulated pressure, a second regulator element for further reducing the pressure of the gas in the second stage regulator and a second outlet for outputting gas at an outlet pressure which is lower than the regulated pressure; and - a pilot regulator configured to receive gas at the regulated pressure from the first stage regulator, the pilot regulator being controllable by an actuator to set a pilot pressure, the pilot pressure being communicated to the second stage regulator to set the outlet pressure delivered by the second stage regulator.
A method for setting a shift point for shifting a transmission for a powered vehicle between a first gear ratio and a second gear ratio, the transmission having a controller electrically coupled to a data bus, comprising: determining input power data points based on input torque data; calculating a gear step value based on the first gear ratio and second gear ratio; comparing a first speed value to a full load governing speed of an engine, the first speed value being a function of an engine speed at peak engine torque and the gear step value; determining a first power value as a function of the first speed value if a result of the comparing step is that the first speed value is less than the full load governing speed; computing (410, 420) a second power value based on the gear step value; comparing the first power value and the second power value to one another; and setting the shift point based on the result of comparing the first power value and the second power value. determining input power data points based on input torque data; calculating a gear step value based on the first gear ratio and second gear ratio; comparing a first speed value to a full load governing speed of an engine, the first speed value being a function of an engine speed at peak engine torque and the gear step value; determining a first power value as a function of the first speed value if a result of the comparing step is that the first speed value is less than the full load governing speed; computing (410, 420) a second power value based on the gear step value; comparing the first power value and the second power value to one another; and setting the shift point based on the result of comparing the first power value and the second power value.
A communication device comprising: circuitry (210, 220, 230) configured to: communicate with a plurality of base stations (30A-30F), the plurality of base stations having the same Cell ID and including a first base station and a second base station; receive information from the first base station, the information indicating at least one insertion period of a Channel State Information Reference Signal, CSI-RS; measure received signal power of the CSI-RS at timings in accordance with the at least one insertion period, wherein the timings include a first timing at which both a first CSI-RS from the first base station and a second CSI-RS from the second base station are received and a second timing at which only one of the first CSI-RS or the second CSI-RS is received; wherein the first CSI-RS and the second CSI-RS are identical. communicate with a plurality of base stations (30A-30F), the plurality of base stations having the same Cell ID and including a first base station and a second base station; receive information from the first base station, the information indicating at least one insertion period of a Channel State Information Reference Signal, CSI-RS; measure received signal power of the CSI-RS at timings in accordance with the at least one insertion period, wherein the timings include a first timing at which both a first CSI-RS from the first base station and a second CSI-RS from the second base station are received and a second timing at which only one of the first CSI-RS or the second CSI-RS is received; wherein the first CSI-RS and the second CSI-RS are identical.
An elastic expandable spinal implant, comprising: a main body comprising a base portion and two side extension portions (12, 13), the two side extension portions (12, 13) having distal ends (15, 16) respectively; and two link rods (20, 30) disposed inside the base portion and the two side extension portions (12, 13) of the main body, the two link rods (20, 30) having outer ends (21, 31) hingedly connected with the distal ends (15, 16) of the two side extension portions (12, 13) of the main body at a second pivot portion and a third pivot portion respectively, the two link rods (20, 30) having inner ends (22, 32) respectively, the inner ends (22, 32) of the two link rods (20, 30) being hingedly connected with each other at a first pivot portion, at least one of the main body and the two link rods (20, 30) being capable of elastic deformation, characterised in that when the two link rods (20, 30) are pushed or pulled a predetermined distance from the base portion of the main body to the position of a dead point, the two link rods (20, 30) expand away from the base portion of the main body due to the elastic deformability of the at least one of the main body and the two link rods. a main body comprising a base portion and two side extension portions (12, 13), the two side extension portions (12, 13) having distal ends (15, 16) respectively; and two link rods (20, 30) disposed inside the base portion and the two side extension portions (12, 13) of the main body, the two link rods (20, 30) having outer ends (21, 31) hingedly connected with the distal ends (15, 16) of the two side extension portions (12, 13) of the main body at a second pivot portion and a third pivot portion respectively, the two link rods (20, 30) having inner ends (22, 32) respectively, the inner ends (22, 32) of the two link rods (20, 30) being hingedly connected with each other at a first pivot portion, at least one of the main body and the two link rods (20, 30) being capable of elastic deformation, characterised in that when the two link rods (20, 30) are pushed or pulled a predetermined distance from the base portion of the main body to the position of a dead point, the two link rods (20, 30) expand away from the base portion of the main body due to the elastic deformability of the at least one of the main body and the two link rods.
A staple cartridge assembly for use with a surgical stapler, comprising: a cartridge body having a plurality of staple cavities, each staple cavity having a surgical staple disposed therein; a biocompatible adjunct material releasably retained on the cartridge body and configured to be delivered to tissue by deployment of the staples in the cartridge body, the adjunct material including a plurality of distinct reservoirs formed therein, and the adjunct material including at least one biocompatible polymer; and an effective amount of at least one medicant selected from the list consisting of hemostatic agents, pro-inflammatory medicants, metalloproteinase inhibitors, antiinflammatory agents and growth factors, the at least one medicant being disposed within a plurality of vessels disposed within at least one of the reservoirs, the at least one medicant being effective to affect tissue in-growth, wherein disruption of the at least one polymer is configured to allow release of the vessels from the at least one of the reservoirs. a cartridge body having a plurality of staple cavities, each staple cavity having a surgical staple disposed therein; a biocompatible adjunct material releasably retained on the cartridge body and configured to be delivered to tissue by deployment of the staples in the cartridge body, the adjunct material including a plurality of distinct reservoirs formed therein, and the adjunct material including at least one biocompatible polymer; and an effective amount of at least one medicant selected from the list consisting of hemostatic agents, pro-inflammatory medicants, metalloproteinase inhibitors, antiinflammatory agents and growth factors, the at least one medicant being disposed within a plurality of vessels disposed within at least one of the reservoirs, the at least one medicant being effective to affect tissue in-growth, wherein disruption of the at least one polymer is configured to allow release of the vessels from the at least one of the reservoirs.
An immunogenic composition comprising (a) purified Shigella sonnei Generalized Modules for Membrane Antigens (GMMA) purified from at least one strain selected from the group comprising - Shigella sonnei ΔtolR, ΔhtrB, virG::nadAB, - Shigella sonnei ΔtolR, ΔmsbB1, virG::nadAB, - Shigella sonnei ΔtolR, ΔmsbB2, virG::nadAB, and - Shigella sonnei ΔtolR, ΔmsbB1 ΔmsbB2, virG::nadAB, (b) purified Shigella flexneri GMMA purified from at least one strain selected from the group comprising - Shigella flexneri 2a ΔtolR, ΔmsbB, - Shigella flexneri 2a ΔtolR, ΔhtrB, - Shigella flexneri 3a ΔtolR, ΔmsbB, - Shigella flexneri 3a ΔtolR, ΔhtrB, - Shigella flexneri 6 ΔtolR, ΔmsbB, and - Shigella flexneri 6 ΔtolR, ΔhtrB, and (c) an aluminium adjuvant. (a) purified Shigella sonnei Generalized Modules for Membrane Antigens (GMMA) purified from at least one strain selected from the group comprising - Shigella sonnei ΔtolR, ΔhtrB, virG::nadAB, - Shigella sonnei ΔtolR, ΔmsbB1, virG::nadAB, - Shigella sonnei ΔtolR, ΔmsbB2, virG::nadAB, and - Shigella sonnei ΔtolR, ΔmsbB1 ΔmsbB2, virG::nadAB, - Shigella sonnei ΔtolR, ΔhtrB, virG::nadAB, - Shigella sonnei ΔtolR, ΔmsbB1, virG::nadAB, - Shigella sonnei ΔtolR, ΔmsbB2, virG::nadAB, and - Shigella sonnei ΔtolR, ΔmsbB1 ΔmsbB2, virG::nadAB, (b) purified Shigella flexneri GMMA purified from at least one strain selected from the group comprising - Shigella flexneri 2a ΔtolR, ΔmsbB, - Shigella flexneri 2a ΔtolR, ΔhtrB, - Shigella flexneri 3a ΔtolR, ΔmsbB, - Shigella flexneri 3a ΔtolR, ΔhtrB, - Shigella flexneri 6 ΔtolR, ΔmsbB, and - Shigella flexneri 6 ΔtolR, ΔhtrB, and - Shigella flexneri 2a ΔtolR, ΔmsbB, - Shigella flexneri 2a ΔtolR, ΔhtrB, - Shigella flexneri 3a ΔtolR, ΔmsbB, - Shigella flexneri 3a ΔtolR, ΔhtrB, - Shigella flexneri 6 ΔtolR, ΔmsbB, and - Shigella flexneri 6 ΔtolR, ΔhtrB, and (c) an aluminium adjuvant.
A composition comprising an effective amount of flavopiridol or a salt thereof and JQ1 or a salt thereof for use in a method of reducing, preventing, inhibiting, mitigating and/or ameliorating cartilage degradation and/or chondrocyte death in a subject in need thereof, comprising administering the composition within 10 days after the subject has experienced traumatic injury, thereby reducing, preventing, inhibiting, mitigating and/or ameliorating cartilage degradation and/or chondrocyte death in the subject.
A device assembly for endovascular prosthesis implantation in a human patient, the device assembly comprising a collapsed delivery configuration and an expanded deployed configuration, and the device assembly comprising when in the expanded deployed configuration: a) a stent frame comprising a plurality of rigid support beams of fixed length that extends longitudinally; a first layer, a second layer, and a third layer of expandable stent cells, the layers stacked in a longitudinal direction, wherein each expandable stent cell of the first layer comprises a substantially diamond shape, wherein expandable stent cells of the second layer comprises at least a shape that is substantially diamond and flares outwardly in a radial direction and a substantially concave hexagon shape adjacent thereto, and wherein each of the expandable stent cells of the third layer comprises two of said rigid support beams; b) a valve attached to the plurality of support beams; and c) an expandable sealing skirt coupled to the stent frame, the expandable sealing skirt comprising a non-protruding region and a protruding region extending radially from the expandable stent cells of the stent frame, wherein the non-protruding region is permanently integrated with the protruding region. a) a stent frame comprising a plurality of rigid support beams of fixed length that extends longitudinally; a first layer, a second layer, and a third layer of expandable stent cells, the layers stacked in a longitudinal direction, wherein each expandable stent cell of the first layer comprises a substantially diamond shape, wherein expandable stent cells of the second layer comprises at least a shape that is substantially diamond and flares outwardly in a radial direction and a substantially concave hexagon shape adjacent thereto, and wherein each of the expandable stent cells of the third layer comprises two of said rigid support beams; a plurality of rigid support beams of fixed length that extends longitudinally; a first layer, a second layer, and a third layer of expandable stent cells, the layers stacked in a longitudinal direction, wherein each expandable stent cell of the first layer comprises a substantially diamond shape, wherein expandable stent cells of the second layer comprises at least a shape that is substantially diamond and flares outwardly in a radial direction and a substantially concave hexagon shape adjacent thereto, and wherein each of the expandable stent cells of the third layer comprises two of said rigid support beams; b) a valve attached to the plurality of support beams; and c) an expandable sealing skirt coupled to the stent frame, the expandable sealing skirt comprising a non-protruding region and a protruding region extending radially from the expandable stent cells of the stent frame,