mhurhangee/ep-ind-claims huggingface dataset:
An oil level measuring device (1, 101) extending along a longitudinal axis between a distal end and a proximal end, said oil level measuring device (1, 101) including: - an arm (3, 103) extending along the longitudinal axis and comprising a first channel (4, 104) and a second channel (6, 106), the first and the second channels (4, 6; 104, 106) extending along the longitudinal axis - an electronic oil level sensor (5, 105) comprising a measuring mean (8, 108) configured to measure a level of oil in an oil pan and a connecting port (9, 109), the measuring mean (8, 108) being hosted into the first channel (4, 104) of the arm (3, 103), - a dipstick removably hosted into the second channel (6, 106) of the arm (3, 103) and configured to dip into the oil in the oil pan, characterized in that the arm (3, 103) includes a plurality of holes (12, 112), the plurality of holes (12, 112) comprises first holes (12A, 112A) opening in the first channel (4, 104), second holes (12B, 112B) opening in the second channel (6, 106) and third holes (12C, 112C) arranged in a separation wall (16, 116) extending along the longitudinal axis between the first channel (4, 104) and the second channel (6, 106), the first channel (4, 104) and the second channel (6, 106) being in fluid communication via the third holes (12C, 112C). - an arm (3, 103) extending along the longitudinal axis and comprising a first channel (4, 104) and a second channel (6, 106), the first and the second channels (4, 6; 104, 106) extending along the longitudinal axis - an electronic oil level sensor (5, 105) comprising a measuring mean (8, 108) configured to measure a level of oil in an oil pan and a connecting port (9, 109), the measuring mean (8, 108) being hosted into the first channel (4, 104) of the arm (3, 103), - a dipstick removably hosted into the second channel (6, 106) of the arm (3, 103) and configured to dip into the oil in the oil pan,
A utensil for evaluating a length measurement error in an X-ray CT device for three-dimensional shape measurement, the utensil comprising: a base; multiple spheres arranged in an XYZ space on the base; and multiple support rods supporting each of the multiple spheres and installed upright on the base, wherein in the XYZ space on the base, multiple spheres having different Z positions are arranged, and among the multiple spheres, one or more spheres are arranged in a vicinity of a Z axis, and in each of multiple X-Y planes having different Z positions, multiple outer circumference side spheres are arranged along one outer circumference. a base; multiple spheres arranged in an XYZ space on the base; and multiple support rods supporting each of the multiple spheres and installed upright on the base, wherein in the XYZ space on the base, multiple spheres having different Z positions are arranged, and among the multiple spheres, one or more spheres are arranged in a vicinity of a Z axis, and in each of multiple X-Y planes having different Z positions, multiple outer circumference side spheres are arranged along one outer circumference.
A system for providing control of a subterranean well comprising: a normally closed valve secured in the well; and an actuator system operable to open the valve; wherein the actuator system comprises: an actuator; a flow tube; and an actuator motor; the actuator motor being operable to move the actuator to a lower position to cause the flow tube to move to a lower position to maintain the valve in an open position; the actuator system being removable from the well while the valve remains closed and secured in the well. a normally closed valve secured in the well; and an actuator system operable to open the valve; wherein the actuator system comprises: an actuator; a flow tube; and an actuator motor; an actuator; a flow tube; and an actuator motor; the actuator motor being operable to move the actuator to a lower position to cause the flow tube to move to a lower position to maintain the valve in an open position; the actuator system being removable from the well while the valve remains closed and secured in the well.
An electrically heated catalyst device (100; 200; 300) comprises: a catalyst support comprising a ceramics, on which a catalyst is supported; a pair of surface electrodes disposed on an outer surface of the catalyst support, the surface electrodes being disposed opposite to each other and extending in an axial direction of the catalyst support; and a wiring line that externally supplies electric power to the surface electrodes, wherein the catalyst support is electrically heated through the surface electrodes, and characterized in that a wrought member (31a; 31b; 31c; 31d) made of metal is buried in the surface electrodes, the wrought member (31a; 31b; 31c; 31d) extending in the axial direction of the catalyst support. a catalyst support comprising a ceramics, on which a catalyst is supported; a pair of surface electrodes disposed on an outer surface of the catalyst support, the surface electrodes being disposed opposite to each other and extending in an axial direction of the catalyst support; and a wiring line that externally supplies electric power to the surface electrodes, wherein the catalyst support is electrically heated through the surface electrodes, and characterized in that a wrought member (31a; 31b; 31c; 31d) made of metal is buried in the surface electrodes, the wrought member (31a; 31b; 31c; 31d) extending in the axial direction of the catalyst support.
A gas turbine engine control system for limiting turbine overspeed in case of a shaft failure, the control system comprising: - an overspeed protection system which is able to detect a shaft failure of the gas turbine engine, wherein the overspeed protection system is configured to activate an activation member in case a shaft failure is detected; - a fuel limiting mechanism coupled with the activation member, wherein the fuel limiting mechanism is configured to limit the fuel supply to the gas turbine engine combustor if the activation member is activated; - a variable stator vane mechanism which is configured to adjust variable stator vanes of a compressor of the gas turbine engine in their rotational position, the variable stator vanes having a closed position which blocks air flow through the compressor; - a connecting fuel line connecting the fuel limiting mechanism and the variable stator vane mechanism; - wherein upon activation of the activation member the fuel limiting mechanism is configured to pressurize the connecting fuel line, thereby activating the variable stator vane mechanism to move at least one row of the variable stator vanes into the closed position, characterized in that the fuel limiting mechanism is implemented in an overspeed and splitter unit which - is configured to split the pressurized fuel coming from a fuel metering unit into upper and lower fuel manifolds that feed combustor nozzles under normal operating conditions; - is configured to limit the fuel from the fuel metering unit into the manifolds if the activation element is activated; and - is configured to pressurize the connecting fuel line if the activation element is activated. - an overspeed protection system which is able to detect a shaft failure of the gas turbine engine, wherein the overspeed protection system is configured to activate an activation member in case a shaft failure is detected; - a fuel limiting mechanism coupled with the activation member, wherein the fuel limiting mechanism is configured to limit the fuel supply to the gas turbine engine combustor if the activation member is activated; - a variable stator vane mechanism which is configured to adjust variable stator vanes of a compressor of the gas turbine engine in their rotational position, the variable stator vanes having a closed position which blocks air flow through the compressor; - a connecting fuel line connecting the fuel limiting mechanism and the variable stator vane mechanism; - wherein upon activation of the activation member the fuel limiting mechanism is configured to pressurize the connecting fuel line, thereby activating the variable stator vane mechanism to move at least one row of the variable stator vanes into the closed position, - is configured to split the pressurized fuel coming from a fuel metering unit into upper and lower fuel manifolds that feed combustor nozzles under normal operating conditions; - is configured to limit the fuel from the fuel metering unit into the manifolds if the activation element is activated; and - is configured to pressurize the connecting fuel line if the activation element is activated.
Polymer comprising sulfonated 2,6-diphenyl-1,4-phenylene oxide repeating units in accordance with Formula (Ia): wherein group R represents sulfonic acid (-SO 3 H), sulfonate salt (-SO 3 - X +), wherein X + is a cation, or combinations thereof, wherein x, y and z are integer values, independently chosen from 0, 1 and 2; and wherein the equivalent weight, defined as the number of grams of dry sulfonated polymer per mol of group R, is between 215 and 270 g/(mol R). wherein group R represents sulfonic acid (-SO 3 H), sulfonate salt (-SO 3 - X +), wherein X + is a cation, or combinations thereof, wherein x, y and z are integer values, independently chosen from 0, 1 and 2; and wherein the equivalent weight, defined as the number of grams of dry sulfonated polymer per mol of group R, is between 215 and 270 g/(mol R).
Pump, in particular high-pressure fuel pump for a fuel injection device, having at least one pump element which has a pump piston which is driven in a reciprocating movement, having a pump housing (22, 40) which has an interior space in which there is arranged a drive region (14, 18, 36), wherein the pump piston, during its reciprocating movement, moves alternately into the interior space and out of the interior space, and wherein the interior space has at least one inlet and at least one outlet for a liquid medium, characterized in that the connection of the interior space to the at least one outlet is controlled, in a manner dependent on the stroke of the pump piston, such that the connection of the interior space to the outlet is opened in a mid-stroke range of the pump piston between its bottom dead centre and top dead centre, and is closed in other ranges of the stroke of the pump piston.
An exhaust treatment device for a diesel engine, in which a DPF regeneration control device starts an execution of automatic DPF regeneration processing based on a fact that an accumulation estimation value of PM accumulated on a DPF has reached a start value of the automatic DPF regeneration processing so that an automatic DPF regeneration device raises temperature of an exhaust gas passing through the DPF and thus the PM gathered at the DPF is incinerated and removed by heat of the exhaust gas, and the DPF regeneration control device starts cancel processing for canceling the execution of the automatic DPF regeneration processing based on a manipulation of prohibition of the automatic DPF regeneration processing although the DPF satisfies a condition that the automatic DPF regeneration processing is executed, wherein an automatic DPF regeneration processing permission or prohibition selection device is installed, when the prohibition of the automatic DPF regeneration processing is selected through the automatic DPF regeneration processing permission or prohibition selection device, the DPF regeneration control device starts the cancel processing for canceling the execution of the automatic DPF regeneration processing, when the permission of the automatic DPF regeneration processing is selected through the automatic DPF regeneration processing permission or prohibition selection device, the DPF regeneration control device 4 releases a cancel state of the automatic DPF regeneration processing so that the execution of the automatic DPF regeneration processing that was cancelled is started, characterized in that the DPF regeneration control device completes the execution of the automatic DPF regeneration processing through the automatic DPF regeneration device based on a fact that an execution integration time of the automatic DPF regeneration processing has reached an automatic DPF regeneration processing completion time T5 after the execution of the automatic DPF regeneration processing was started, a cancel state integration time computation device for computing a cancel state integration time of the automatic DPF regeneration processing is installed, and when the cancel state integration time of the automatic DPF regeneration processing exceeds a reset waiting time, the DPF regeneration control device resets the execution integration time of the automatic DPF regeneration processing.
A rack storage system with a rack store with store racks (7a, 7b) arranged adjacent to one another, between which at least one rack aisle extends from a first rack store side to a second rack store side and which have storing positions for goods in rack levels which lie one above another, and guide tracks (14a, 14b) running along the rack aisle in the rack levels, and at least one autonomous conveyor vehicle movable along the guide tracks (14a, 14b) for transporting the goods to the storing positions and a goods lifting device arranged on one of the rack store sides (9, 10), which goods lifting device has transport devices (55a, 55b) able to be raised and lowered independently of each other, for transporting goods between the rack levels, and a receiving device which is able to be raised and lowered, for transporting the conveyor vehicle between the rack levels, characterized in that the receiving device comprises running rails (62a, 62b) which are in each case fastened to the transport devices (55a, 55b) and face one another, wherein the running rails (62a, 62b) with the transport devices (55a, 55b) are adjustable into a receiving position, in which the conveyor vehicle is movable into a receiving position on the running rails (62a, 62b) and can be moved in said position between the rack levels which lie one above another.
An organ model for a catheter simulator, the organ model comprising: a simulated blood vessel, being formed from an elastic material, wherein a portion of the simulated blood vessel is attachable and detachable, wherein the portion of the simulated blood vessel, being attachable and detachable, is a vascular part, the vascular part includes an opening at both ends, and the two ends of the vascular part are connected to a mounting unit of the simulated blood vessel, and wherein the mounting unit of the simulated blood vessel has, at both ends, an edge serving as a connection unit to the vascular part, the region between the edges is continued in any of the bottom, the upper section, or the lateral section, or in a portion, even in a state of having the vascular part removed, and the distance between the edges is shorter than the length of the vascular part. a simulated blood vessel, being formed from an elastic material, wherein a portion of the simulated blood vessel is attachable and detachable, wherein the portion of the simulated blood vessel, being attachable and detachable, is a vascular part, the vascular part includes an opening at both ends, and the two ends of the vascular part are connected to a mounting unit of the simulated blood vessel, and wherein the mounting unit of the simulated blood vessel has, at both ends, an edge serving as a connection unit to the vascular part, the region between the edges is continued in any of the bottom, the upper section, or the lateral section, or in a portion, even in a state of having the vascular part removed, and the distance between the edges is shorter than the length of the vascular part.
A computer implemented method for executing instructions that are issued via any of two or more different distributed ledgers, the method comprising: monitoring a plurality of distributed ledgers (120, 130) for distributed ledger transactions comprising an instruction to be executed; identifying a first plurality of distributed ledger transactions, each appearing on any of the plurality of distributed ledgers, wherein each of the first plurality of distributed ledger transactions comprises an instruction to be executed; verifying at least some of the first plurality of instructions in the identified first plurality of distributed ledger transactions; for each of the first plurality of instructions that is positively verified, executing the instruction; and storing, in an electronic data record, a result of the executed instruction; and after executing the positively verified instructions of the first plurality of instructions, storing, on at least one of the plurality of distributed ledgers, a first verification record indicative of each stored result in the electronic data record. monitoring a plurality of distributed ledgers (120, 130) for distributed ledger transactions comprising an instruction to be executed; identifying a first plurality of distributed ledger transactions, each appearing on any of the plurality of distributed ledgers, wherein each of the first plurality of distributed ledger transactions comprises an instruction to be executed; verifying at least some of the first plurality of instructions in the identified first plurality of distributed ledger transactions; for each of the first plurality of instructions that is positively verified, executing the instruction; and storing, in an electronic data record, a result of the executed instruction; and executing the instruction; and storing, in an electronic data record, a result of the executed instruction; and after executing the positively verified instructions of the first plurality of instructions, storing, on at least one of the plurality of distributed ledgers, a first verification record indicative of each stored result in the electronic data record.
A method of producing a 2-aminonicotinic acid benzyl ester derivative represented by Formula: wherein R 1 represents a hydrogen atom or a C 1 -C 4 alkyl group; R 2 represents a hydrogen atom, a halogen atom, a C 1 -C 4 alkyl group, or a C 1 -C 4 alkoxy group; A represents a nitrogen atom or a methine group; and Y represents an oxygen atom, a methylene group (CH 2), or a methyleneoxy group (OCH 2), the method comprising: (a) reacting a 2-aminonicotinic acid derivative represented by Formula: wherein R 1 is the same as that defined in Formula, with an alkali metal hydride or an alkali metal carbonate to prepare a compound represented by Formula: wherein R 1 is the same as that defined in Formula, and M represents an alkali metal; and (b) reacting the compound represented by Formula prepared in the step (a) with a benzyl halide derivative represented by Formula: wherein R 2, A, and Y are the same as those defined in Formula, and X represents a halogen atom, in a polar solvent to produce the 2-aminonicotinic acid benzyl ester derivative represented by Formula. (a) reacting a 2-aminonicotinic acid derivative represented by Formula: wherein R 1 is the same as that defined in Formula, with an alkali metal hydride or an alkali metal carbonate to prepare a compound represented by Formula: wherein R 1 is the same as that defined in Formula, and M represents an alkali metal; and (b) reacting the compound represented by Formula prepared in the step (a) with a benzyl halide derivative represented by Formula: wherein R 2, A, and Y are the same as those defined in Formula, and X represents a halogen atom, in a polar solvent to produce the 2-aminonicotinic acid benzyl ester derivative represented by Formula.
A method performed by a wireless device (112; 700) for beam failure recovery, the method comprising: - transmitting a scheduling request to a base station (102; 400) after detecting a beam failure; - receiving (202, 206), from the base station, a first uplink grant for a particular Hybrid Automatic Repeat Request, HARQ, process, wherein the first uplink grant comprises a new data indicator, NDI; - transmitting (208, 316), using the first uplink grant, an uplink transmission to the base station, the uplink transmission comprising beam failure recovery information, the uplink transmission being associated with the particular HARQ process; - receiving (210, 318), from the base station, a second uplink grant for the particular HARQ process, wherein the second uplink grant comprises a NDI, wherein the NDI comprised in the second uplink grant is a bit in the second uplink grant, wherein a value of the bit is toggled compared to the NDI comprised in the first uplink grant, the NDI comprised in the second uplink grant thereby indicating that new data can be transmitted; and - determining (212, 320), based on the NDI comprised in the second uplink grant, that a beam failure recovery procedure related to the beam failure recovery information is complete. - transmitting a scheduling request to a base station (102; 400) after detecting a beam failure; - receiving (202, 206), from the base station, a first uplink grant for a particular Hybrid Automatic Repeat Request, HARQ, process, wherein the first uplink grant comprises a new data indicator, NDI; - transmitting (208, 316), using the first uplink grant, an uplink transmission to the base station, the uplink transmission comprising beam failure recovery information, the uplink transmission being associated with the particular HARQ process; - receiving (210, 318), from the base station, a second uplink grant for the particular HARQ process, wherein the second uplink grant comprises a NDI, wherein the NDI comprised in the second uplink grant is a bit in the second uplink grant, wherein a value of the bit is toggled compared to the NDI comprised in the first uplink grant, the NDI comprised in the second uplink grant thereby indicating that new data can be transmitted; and - determining (212, 320), based on the NDI comprised in the second uplink grant, that a beam failure recovery procedure related to the beam failure recovery information is complete.
Electrosurgical appliance for connecting a neutral electrode that has at least two electrodes (11, 12) electrically insulated from one another, wherein a cover foil is secured to effective areas of the electrodes (11, 12) that can be applied to a skin section of a patient, and can be removed prior to application, wherein the cover foil has a defined resistance, so that a defined resistance is formed between the electrodes (11, 12), characterized in that the electrosurgical appliance comprises: - a resistance measuring device for measuring a resistance between the effective areas of the electrodes (11, 12) of the neutral electrode when the cover foil is attached, - a decoding device/comparator for comparing the measured resistance with stored resistance values and for determining the electrode type of the connected neutral electrode on the basis of the measured resistance, and - a display and/or registration device for displaying and/or registering the electrode type that is associated with the resistance value. - a resistance measuring device for measuring a resistance between the effective areas of the electrodes (11, 12) of the neutral electrode when the cover foil is attached, - a decoding device/comparator for comparing the measured resistance with stored resistance values and for determining the electrode type of the connected neutral electrode on the basis of the measured resistance, and - a display and/or registration device for displaying and/or registering the electrode type that is associated with the resistance value.
A process for producing chlorinated propanes by reacting carbon tetrachloride with ethylene within a tank reactor that includes a liquid reaction mixture and a headspace above the reaction mixture wherein ethylene gas diffuses from the liquid reaction mixture into the headspace while agitating the reaction mixture, the process comprising transferring ethylene within the headspace back into the reaction mixture through a conduit within the mixing device that agitates the reaction mixture.