mhurhangee/ep-ind-claims huggingface dataset:
An electronically controlled switch, ECS, apparatus (100, 400, 900A, 900B, 1100, 1300) adapted to be coupled to an alternating current source and to a load so as to control an amount of power delivered from the AC source to the load, the ECS having ON and OFF states and comprising: a first power supply (901, 1100) having a first DC bus (910+, 910-) electrically coupled to a rectifier bridge and a first flyback converter, the rectifier bridge configured to receive an AC signal from the AC source and provide a first DC voltage at the first DC bus, the first flyback converter configured to receive the DC voltage and output a first low-voltage signal; a second power supply (905, 1300) having a second DC bus (909+, 909-) electrically coupled to a controllable rectifier bridge (966, 1366) and a second flyback converter (971, 1371), the controllable rectifier bridge being configured to receive the AC signal from the AC source and provide a second DC voltage at the second DC bus, the second flyback converter being configured to receive the second DC voltage and output a second low-voltage signal; and a control portion (1377, U4, 1600) configured to control the first flyback converter to output the first low-voltage signal when the ECS is in the OFF state, and further configured to control the second flyback converter to output the second low-voltage signal when the ECS is in the ON state, wherein the ECS is configured to use the first or second low voltage for internal operating power. a first power supply (901, 1100) having a first DC bus (910+, 910-) electrically coupled to a rectifier bridge and a first flyback converter, the rectifier bridge configured to receive an AC signal from the AC source and provide a first DC voltage at the first DC bus, the first flyback converter configured to receive the DC voltage and output a first low-voltage signal; a second power supply (905, 1300) having a second DC bus (909+, 909-) electrically coupled to a controllable rectifier bridge (966, 1366) and a second flyback converter (971, 1371), the controllable rectifier bridge being configured to receive the AC signal from the AC source and provide a second DC voltage at the second DC bus, the second flyback converter being configured to receive the second DC voltage and output a second low-voltage signal; and a control portion (1377, U4, 1600) configured to control the first flyback converter to output the first low-voltage signal when the ECS is in the OFF state, and further configured to control the second flyback converter to output the second low-voltage signal when the ECS is in the ON state, wherein the ECS is configured to use the first or second low voltage for internal operating power.
A virtual reality headset stand comprising: a base; a stem extending from the base, wherein the stem is angled toward the base and the stem comprises an input device to control actions presented in a virtual reality headset; and a docking station attached to the stem, wherein the docking station is angled away from the stem, wherein the docking station is contoured to hold the virtual reality headset, and wherein the docking station comprises: a lip connected to the stem; a body portion connected to the lip; and a clip connected to the body portion. a base; a stem extending from the base, wherein the stem is angled toward the base and the stem comprises an input device to control actions presented in a virtual reality headset; and a docking station attached to the stem, wherein the docking station is angled away from the stem, wherein the docking station is contoured to hold the virtual reality headset, and wherein the docking station comprises: a lip connected to the stem; a body portion connected to the lip; and a clip connected to the body portion. a lip connected to the stem; a body portion connected to the lip; and a clip connected to the body portion.
A vehicle comprising: a vehicle body; a plurality of wheel assemblies each having a rotation axis; at least one suspension linkage, each suspension linkage coupling a respective wheel assembly to the vehicle body to permit motion of the rotation axis of each respective wheel assembly relative to the vehicle body; a damper coupled to a respective suspension linkage to constrain the motion of the associated wheel assembly by applying a damper reaction force to the suspension linkage, the damper being configured to be responsive to a damper force control output to vary the damper reaction force being applied to the suspension linkage; at least one vehicle sensor (17, 18, 24, 25, 26) configured to provide vehicle condition data; and characterised in that the vehicle further comprises a damper control unit configured to generate the damper force control output that causes the damper to generate respective damper reaction forces to act against the suspension linkage to control the motion of the wheel assembly towards a set position for the wheel assembly relative to the vehicle body, adjust the set position based on a change in the vehicle condition data, and calculate the set position based on variations in the vehicle condition data over time. a vehicle body; a plurality of wheel assemblies each having a rotation axis; at least one suspension linkage, each suspension linkage coupling a respective wheel assembly to the vehicle body to permit motion of the rotation axis of each respective wheel assembly relative to the vehicle body; a damper coupled to a respective suspension linkage to constrain the motion of the associated wheel assembly by applying a damper reaction force to the suspension linkage, the damper being configured to be responsive to a damper force control output to vary the damper reaction force being applied to the suspension linkage; at least one vehicle sensor (17, 18, 24, 25, 26) configured to provide vehicle condition data; and characterised in that the vehicle further comprises a damper control unit configured to generate the damper force control output that causes the damper to generate respective damper reaction forces to act against the suspension linkage to control the motion of the wheel assembly towards a set position for the wheel assembly relative to the vehicle body, adjust the set position based on a change in the vehicle condition data, and calculate the set position based on variations in the vehicle condition data over time.
A population of cells enriched for cells expressing STRO-1 bright for use in a method for treating graft versus host disease (GvHD) complications in a mammalian patient, which method comprises administering the population of cells to the mammalian patient.
A tool for removing an implanted item from beneath the skin, the tool comprising: a clamping device configured to engage with the skin to retain the implanted item in a known position relative to the tool; a cutting device for cutting an opening in the skin; and a gripping device configured to move through an opening in the skin and grip an implanted item; such that in use, the implanted item is retained by the clamping device in the known position and the cutting device creates an opening in the skin through which the gripping device passes to grip the implanted item. a clamping device configured to engage with the skin to retain the implanted item in a known position relative to the tool; a cutting device for cutting an opening in the skin; and a gripping device configured to move through an opening in the skin and grip an implanted item; such that in use, the implanted item is retained by the clamping device in the known position and the cutting device creates an opening in the skin through which the gripping device passes to grip the implanted item.
A method for unlocking a terminal device, the method comprising: displaying a lock interface comprising a plurality of nodes on a screen of the terminal device, wherein each of the plurality of nodes is displayed with prompt information identifying each node; detecting voice input; performing voice recognition on the detected voice input by determining nodes identified by the voice input; determining whether a result of the voice recognition corresponds to preset unlock nodes based on the prompt information displayed on each of the plurality of nodes; and if the result of the voice recognition corresponds to the preset unlock nodes, unlocking the terminal device, and displaying an unlock interface behind the lock interface, wherein determining whether the result of the voice recognition corresponds to the preset unlock nodes comprises: determining the nodes corresponding to the result of the voice recognition based on the prompt information displayed on each of the plurality of nodes, obtaining a corresponding path based on the determined nodes, and determining whether the path matches with an unlock path corresponding to the preset unlock nodes. displaying a lock interface comprising a plurality of nodes on a screen of the terminal device, wherein each of the plurality of nodes is displayed with prompt information identifying each node; detecting voice input; performing voice recognition on the detected voice input by determining nodes identified by the voice input; determining whether a result of the voice recognition corresponds to preset unlock nodes based on the prompt information displayed on each of the plurality of nodes; and if the result of the voice recognition corresponds to the preset unlock nodes, unlocking the terminal device, and displaying an unlock interface behind the lock interface, wherein determining whether the result of the voice recognition corresponds to the preset unlock nodes comprises: determining the nodes corresponding to the result of the voice recognition based on the prompt information displayed on each of the plurality of nodes, obtaining a corresponding path based on the determined nodes, and determining whether the path matches with an unlock path corresponding to the preset unlock nodes. determining the nodes corresponding to the result of the voice recognition based on the prompt information displayed on each of the plurality of nodes, obtaining a corresponding path based on the determined nodes, and determining whether the path matches with an unlock path corresponding to the preset unlock nodes.
A method of fabricating a buried storage tank comprising at least the following steps: • forming below ground a structure comprising an outer wall forming a first enclosed periphery defining a first volume, a raft, and an inner wall forming a second enclosed periphery defining a fluid-tight storage space for a fluid inside the first volume, so that the outer wall and the inner wall are spaced apart from each other, whereby a gap is formed between them; and • applying a prestressing force on the inner wall directed towards the inside of the storage space, filling the gap with at least one prestressing fluid, whereby the inner wall is subjected to compressive hoop stress, the prestressing fluid exerting the prestressing force on the inner wall, the prestressing fluid being a hardening material and comprising concrete, in particular slow-setting concrete; the method being characterized in that a second volume of concrete is introduced in the gap only once a first volume of concrete has already set within the gap. • forming below ground a structure comprising an outer wall forming a first enclosed periphery defining a first volume, a raft, and an inner wall forming a second enclosed periphery defining a fluid-tight storage space for a fluid inside the first volume, so that the outer wall and the inner wall are spaced apart from each other, whereby a gap is formed between them; and • applying a prestressing force on the inner wall directed towards the inside of the storage space, filling the gap with at least one prestressing fluid, whereby the inner wall is subjected to compressive hoop stress, the prestressing fluid exerting the prestressing force on the inner wall, the prestressing fluid being a hardening material and comprising concrete, in particular slow-setting concrete; the method being characterized in that a second volume of concrete is introduced in the gap only once a first volume of concrete has already set within the gap.
A method of producing a high-voltage transistor device, comprising: - forming isolation regions in a semiconductor substrate, the isolation regions confining a striplike area, - forming a drain region of a first type of electrical conductivity and a body region of a second type of electrical conductivity, which is opposite to the first type of conductivity, at opposite ends of the striplike area, - forming a gate electrode above the body region, - implanting a dopant for the first type of conductivity in the striplike area, and - forming a source region of the first type of conductivity in the body region, wherein - the implantation is performed in such a way that the dopant for the first type of conductivity does not exceed a maximal depth of the isolation regions, and - a dopant for the second type of conductivity is implanted in the striplike area in such a way that the dopant does not exceed the maximal depth of the isolation regions and a net doping of the second type of conductivity is obtained in an adjustment region, characterized in that - the adjustment region is formed using a mask having an opening that is limited by an edge arranged obliquely with respect to a longitudinal extension of the striplike area to implant the dopant for the second type of conductivity in the striplike area, and - the implantations of the dopants for the first and second types of conductivity in the striplike area between the isolation regions are performed in a way that is self-aligned with respect to the gate electrode. - forming isolation regions in a semiconductor substrate, the isolation regions confining a striplike area, - forming a drain region of a first type of electrical conductivity and a body region of a second type of electrical conductivity, which is opposite to the first type of conductivity, at opposite ends of the striplike area, - forming a gate electrode above the body region, - implanting a dopant for the first type of conductivity in the striplike area, and - forming a source region of the first type of conductivity in the body region, wherein - the implantation is performed in such a way that the dopant for the first type of conductivity does not exceed a maximal depth of the isolation regions, and - a dopant for the second type of conductivity is implanted in the striplike area in such a way that the dopant does not exceed the maximal depth of the isolation regions and a net doping of the second type of conductivity is obtained in an adjustment region, - the adjustment region is formed using a mask having an opening that is limited by an edge arranged obliquely with respect to a longitudinal extension of the striplike area to implant the dopant for the second type of conductivity in the striplike area, and - the implantations of the dopants for the first and second types of conductivity in the striplike area between the isolation regions are performed in a way that is self-aligned with respect to the gate electrode.
A sole structure for an article of footwear comprising: a barrier having a heel region, a midfoot region forward of the heel region, and a forefoot region forward of the midfoot region, the barrier including: a first portion that includes a first surface of the barrier; a second portion that includes a second surface of the barrier; a first interior cavity and a second interior cavity; wherein the first interior cavity and the second interior cavity retain fluid; wherein the barrier includes a bond that secures the first portion of the barrier to the second portion of the barrier and separates the first interior cavity and the second interior cavity; wherein the second interior cavity extends only in the forefoot region forward of the first interior cavity; a plurality of tethers (850A, 850B) in at least one of the first interior cavity and the second interior cavity and operatively connecting the first portion to the second portion; an outsole secured to the second surface of the barrier; wherein the outsole includes: a first outsole portion extending under the first interior cavity; and a second outsole portion extending under the second interior cavity and separated from the first outsole portion by a gap, the barrier has at least one notch (830A, 830B, 830C, 830D) in a periphery of the heel region. a barrier having a heel region, a midfoot region forward of the heel region, and a forefoot region forward of the midfoot region, the barrier including: a first portion that includes a first surface of the barrier; a second portion that includes a second surface of the barrier; a first interior cavity and a second interior cavity; wherein the first interior cavity and the second interior cavity retain fluid; a first portion that includes a first surface of the barrier; a second portion that includes a second surface of the barrier; a first interior cavity and a second interior cavity; wherein the first interior cavity and the second interior cavity retain fluid; wherein the barrier includes a bond that secures the first portion of the barrier to the second portion of the barrier and separates the first interior cavity and the second interior cavity; wherein the second interior cavity extends only in the forefoot region forward of the first interior cavity; a plurality of tethers (850A, 850B) in at least one of the first interior cavity and the second interior cavity and operatively connecting the first portion to the second portion; an outsole secured to the second surface of the barrier; wherein the outsole includes: a first outsole portion extending under the first interior cavity; and a second outsole portion extending under the second interior cavity and separated from the first outsole portion by a gap, a first outsole portion extending under the first interior cavity; and a second outsole portion extending under the second interior cavity and separated from the first outsole portion by a gap, the barrier has at least one notch (830A, 830B, 830C, 830D) in a periphery of the heel region.
An apparatus comprising: a DRAM memory array comprising: a main portion having a corresponding system refresh rate; and a redundant portion; and refresh circuitry configured to, responsive to a determination of a hammering event occurring to a particular row of memory cells in the redundant portion which corresponds to a row of memory cells remapped from the main portion of the DRAM array, and wherein the particular row of memory cells of the redundant portion is accessed due to an attempt to access the remapped row of memory cells of the main portion, continually refresh all of the redundant portion at a refresh rate that is higher than the system refresh rate. a DRAM memory array comprising: a main portion having a corresponding system refresh rate; and a redundant portion; and a main portion having a corresponding system refresh rate; and a redundant portion; and refresh circuitry configured to, responsive to a determination of a hammering event occurring to a particular row of memory cells in the redundant portion which corresponds to a row of memory cells remapped from the main portion of the DRAM array, and wherein the particular row of memory cells of the redundant portion is accessed due to an attempt to access the remapped row of memory cells of the main portion, continually refresh all of the redundant portion at a refresh rate that is higher than the system refresh rate.
A safety architecture system (400, 500) for autonomous vehicles comprising: a first stage comprising: a primary unit that generates primary data for performing normal system functionality; a secondary unit that generates secondary data for performing alternative system functionality; a primary safety gate coupled to the primary unit, with the primary safety gate providing the primary data as a primary output responsive to a determination of validity of the primary data; and a secondary safety gate coupled to the secondary unit, with the secondary safety gate providing the secondary data as a secondary output responsive to a determination of validity of the secondary data; the system being characterized in that the system further comprises: an output selector that is coupled to both the primary safety gate and the secondary safety gate of the first stage, with the output selector providing a system output responsive to the determinations of the validities of the primary data and the secondary data. a first stage comprising: a primary unit that generates primary data for performing normal system functionality; a secondary unit that generates secondary data for performing alternative system functionality; a primary safety gate coupled to the primary unit, with the primary safety gate providing the primary data as a primary output responsive to a determination of validity of the primary data; and a secondary safety gate coupled to the secondary unit, with the secondary safety gate providing the secondary data as a secondary output responsive to a determination of validity of the secondary data; the system being characterized in that the system further comprises: a primary unit that generates primary data for performing normal system functionality; a secondary unit that generates secondary data for performing alternative system functionality; a primary safety gate coupled to the primary unit, with the primary safety gate providing the primary data as a primary output responsive to a determination of validity of the primary data; and a secondary safety gate coupled to the secondary unit, with the secondary safety gate providing the secondary data as a secondary output responsive to a determination of validity of the secondary data; the system being characterized in that the system further comprises: an output selector that is coupled to both the primary safety gate and the secondary safety gate of the first stage, with the output selector providing a system output responsive to the determinations of the validities of the primary data and the secondary data.
A cover plate for an electrical apparatus, which cover plate includes, at the rear, mounting means for mounting it on a front portion of an electrical apparatus, and presents at least one opening for giving access to at least one functional portion of the electrical apparatus, the cover plate being characterized in that it includes a finishing plate of thickness lying in the range 2.5 mm to 5 mm, and including at least one metal reinforcement plate that is embedded in a molded insulating structural material, in such a manner as to be covered entirely with this structural material.
A detector with a telescopic carrier/guide rod, on which a measuring probe is disposed on one end, whereby the carrier/guide rod features at least two tubes (6, 7, 8) movable longitudinally in one another, in which respectively two tubes (6, 7 and/or 7, 8) disposed adjacently in a radial direction form an outer tube (6, 7) and an inner tube (7, 8), whereby the respective outer tube (6, 7) on its sliding tube end (9, 9') facing the measuring probe features a clamping means 10, 10' for engaging the movable inner tube (7, 8) whereby the clamping means is formed as a clamping device (10, 10') that features one profile clip with a quick-locking device, characterised in that the profile clip is disposed on the sliding tube end (9, 9') of the outer tube (6, 7) immovably and features a holding ring with two half shell-shaped clamping ring segments (15, 15') that on one of its face sides are flexibly connected together and on its other face sides can be clamped together by means of a clamping lever.