mhurhangee/ep-ind-claims huggingface dataset:
An exhaust gas purification catalyst comprising: a base material; and a catalyst layer in contact with the base material, wherein the base material contains a silicon-silicon carbide composite material, the catalyst layer includes a platinum-group catalyst, a barium component, and an oxygen storage material, the barium component is at least one material selected from the group consisting of barium and a barium compound, the barium component is present at least on a surface of the oxygen storage material, and the barium component has an average particle size of 100 nm or more and 350 nm or less. a base material; and a catalyst layer in contact with the base material, wherein the base material contains a silicon-silicon carbide composite material, the catalyst layer includes a platinum-group catalyst, a barium component, and an oxygen storage material, the barium component is at least one material selected from the group consisting of barium and a barium compound, the barium component is present at least on a surface of the oxygen storage material, and the barium component has an average particle size of 100 nm or more and 350 nm or less.
A system for distributing fluid and gas within a printer, comprising: a fluid container having three fluid ports (313, 315, 317); a first fluid path connecting the first fluid port to a printhead of the printer; a second fluid path connecting the second fluid port to the printhead; a third fluid path connecting the third fluid port to a gas vent; and a valve arrangement for controlling fluid flow through the first fluid path and through a vent line connected to the first fluid path, wherein: the first and second fluid ports (313, 315) are configured so that fluid from the fluid container flows between the first and second fluid paths (380, 382) via the printhead and the third fluid port is configured so that gas flows between the fluid container and the gas vent; the first and second paths (380, 382), printhead and fluid container form a closed fluid flow loop; and characterized in that the system further comprises: a bi-directional pump on the first or second paths (380, 382) for driving said fluid flows to and from the fluid container in either direction of the loop. a fluid container having three fluid ports (313, 315, 317); a first fluid path connecting the first fluid port to a printhead of the printer; a second fluid path connecting the second fluid port to the printhead; a third fluid path connecting the third fluid port to a gas vent; and a valve arrangement for controlling fluid flow through the first fluid path and through a vent line connected to the first fluid path, wherein: the first and second fluid ports (313, 315) are configured so that fluid from the fluid container flows between the first and second fluid paths (380, 382) via the printhead and the third fluid port is configured so that gas flows between the fluid container and the gas vent; the first and second paths (380, 382), printhead and fluid container form a closed fluid flow loop; the first and second fluid ports (313, 315) are configured so that fluid from the fluid container flows between the first and second fluid paths (380, 382) via the printhead and the third fluid port is configured so that gas flows between the fluid container and the gas vent; the first and second paths (380, 382), printhead and fluid container form a closed fluid flow loop;
Process for producing carbon nanotubes or other carbon nanostructures, e.g. cones, comprising: evaporating/decomposing a carbon containing material in a voluminous thermal plasma, wherein said voluminous thermal plasma is generated by rotating an electric arc using an externally applied magnetic field, condensing said evaporated/decomposed carbon containing material on surfaces or on particles in a gas flow, and recirculating said carbon containing material through the voluminous plasma.
Electrical connector assembly of a fuel injector extending along a first axis, the electrical connector assembly having a body with external walls defining an inner volume and an internal wall dividing the connector in a first part adapted to be fixed in a complementary engagement with a body of the injector and, in a second part adapted to receive another electrical connector, the electrical connector assembly further comprising at least one electrical terminal extending through the internal wall, along a second axis, from an inner extremity protruding in the inner volume of the first part of the body, to an outer extremity protruding in an outer volume of the second part of the body, the outer extremity being shaped to receive in a complementary engagement an electrical terminal of said another electrical connector, characterized in that the electrical connector assembly is adapted to be in fluid communication with a back leak return conduit of the injector so that, in use, fuel may enter the inner volume of the first part of the body and wet the electrical terminal.
Device for limiting or keeping constant a flowing quantity of liquid, comprising a flow limiter for limiting the flow of a fluid flowing therethrough, characterized in that the device further comprises a pressure valve arranged in parallel to the flow limiter, wherein the pressure valve comprises a housing with an inlet and an outlet for directing the liquid from the inlet through the housing to the outlet along a flow direction, wherein the valve further comprises a movable member which is movable in the housing towards and away from the outlet between a blocked position wherein the movable member blocks the outlet and an unblocked position wherein the movable member is away from the outlet in a direction opposite the flow direction.
Battery plug of a battery or a battery cell, wherein a degassing valve is arranged in the battery plug, which degassing valve discharges gas which is produced in the electrolyte starting from a specific pressure level, wherein the plug interior space is subdivided into two partial spaces (7, 8) by a transverse wall which is arranged at a right angle or obliquely in relation to the plug top side, a first partial space from amongst the said two partial spaces being connected only to the cell interior space and the second partial space from amongst the said two partial spaces being connected only to the atmosphere, wherein the transverse wall has at least one passage which connects the two partial spaces (7, 8), the degassing valve being arranged in or on the said passage, and characterized in that the battery plug, apart from the valve element of the degassing valve, is in one piece.
A temperature sensor comprising: a pair of lead frames;; a sensor portion connected to the pair of lead frames;; and an insulating holding portion which is fixed to the pair of lead frames and holds the lead frames, wherein the sensor portion comprises: an insulating film having a strip shape; a thin film thermistor portion pattern-formed with a thermistor material at the center portion of the surface of the insulating film; a pair of comb electrodes which have a plurality of comb portions and are pattern-formed on at least one of the top or the bottom of the thin film thermistor portion with facing each other; and a pair of pattern electrodes,, of which one end is connected to the pair of comb electrodes and the other end is connected to the pair of lead frames at both ends of the insulating film, pattern-formed on the surface of the insulating film, and wherein the thin film thermistor portion is disposed on the distal end of the insulating film in a state of being bent into a substantially U-shape, and both ends of the insulating film are fixed to the pair of lead frames. a pair of lead frames;; a sensor portion connected to the pair of lead frames;; and an insulating holding portion which is fixed to the pair of lead frames and holds the lead frames, wherein the sensor portion comprises: an insulating film having a strip shape; a thin film thermistor portion pattern-formed with a thermistor material at the center portion of the surface of the insulating film; a pair of comb electrodes which have a plurality of comb portions and are pattern-formed on at least one of the top or the bottom of the thin film thermistor portion with facing each other; and a pair of pattern electrodes,, of which one end is connected to the pair of comb electrodes and the other end is connected to the pair of lead frames at both ends of the insulating film, pattern-formed on the surface of the insulating film, and wherein the thin film thermistor portion is disposed on the distal end of the insulating film in a state of being bent into a substantially U-shape, and both ends of the insulating film are fixed to the pair of lead frames. an insulating film having a strip shape; a thin film thermistor portion pattern-formed with a thermistor material at the center portion of the surface of the insulating film; a pair of comb electrodes which have a plurality of comb portions and are pattern-formed on at least one of the top or the bottom of the thin film thermistor portion with facing each other; and a pair of pattern electrodes,, of which one end is connected to the pair of comb electrodes and the other end is connected to the pair of lead frames at both ends of the insulating film, pattern-formed on the surface of the insulating film, and wherein the thin film thermistor portion is disposed on the distal end of the insulating film in a state of being bent into a substantially U-shape, and both ends of the insulating film are fixed to the pair of lead frames.
An engine with a mechanical supercharger, comprising: an engine body provided with a camshaft (22, 27) and an injector; and a fuel pump configured to regulate a pressure of fuel injected from the injector; characterized by a variable valve mechanism (23,28) mounted on the camshaft (22, 27) and configured to change a rotational phase of the camshaft (22, 27); and a mechanical supercharger driven by the engine, both the fuel pump and the mechanical supercharger being driven by power transmitted from an engine output shaft of the engine, the power being transmitted to the fuel pump via a first drive mechanism and the power being transmitted to the mechanical supercharger via a second drive mechanism whose system is different from a system of the first drive mechanism, wherein the first drive mechanism and the fuel pump are drive-coupled to each other on one end side of the engine output shaft, and the second drive mechanism and the mechanical supercharger are drive-coupled to each other on the other end side of the engine output shaft, the fuel pump is configured to set the pressure of the fuel to be 40 MPa or more, a geometric compression ratio of the engine is 15 or more, the injector is configured to inject fuel containing at least gasoline directly into a cylinder of the engine, the engine can perform compression ignition combustion, and the first drive mechanism includes a first chain mechanism for driving the fuel pump and a second chain mechanism for driving the camshaft (22,27). a variable valve mechanism (23,28) mounted on the camshaft (22, 27) and configured to change a rotational phase of the camshaft (22, 27); and a mechanical supercharger driven by the engine, both the fuel pump and the mechanical supercharger being driven by power transmitted from an engine output shaft of the engine, the power being transmitted to the fuel pump via a first drive mechanism and the power being transmitted to the mechanical supercharger via a second drive mechanism whose system is different from a system of the first drive mechanism, wherein the first drive mechanism and the fuel pump are drive-coupled to each other on one end side of the engine output shaft, and the second drive mechanism and the mechanical supercharger are drive-coupled to each other on the other end side of the engine output shaft, the fuel pump is configured to set the pressure of the fuel to be 40 MPa or more, a geometric compression ratio of the engine is 15 or more, the injector is configured to inject fuel containing at least gasoline directly into a cylinder of the engine, the engine can perform compression ignition combustion, and the first drive mechanism includes a first chain mechanism for driving the fuel pump and a second chain mechanism for driving the camshaft (22,27).
A coreless paper roll rewinding machine without a winding assisting plate, comprising a rewinding upper roller and a rewinding lower roller which are parallel to each other, a piece of paper is wound on the rewinding upper roller and passes through a roller gap between the rewinding upper roller and the rewinding lower roller, characterized in that the roller gap between the rewinding upper roller and the rewinding lower roller is no more than 10mm; a plurality of air flow channels are arranged in a roller body of the rewinding lower roller, the plurality of air flow channels are arranged spaced apart along a circumference of the roller body; each air flow channel is interconnected with a set of air suction holes provided on the surface of the rewinding lower roller; a set of air suction holes, which is interconnected with the same air flow channel, is arranged in one or more rows on the surface of the roller body; each row of air suction holes is arranged along the latitude direction of the roller body; respective rows of air suction holes are arranged spaced apart along the circumference of the roller body; an air suction cover is arranged in a position close to the end of the rewinding lower roller; as the rewinding lower roller rotates, when a certain row of the air suction holes on the surface of the rewinding lower roller is gradually closing toward the roller gap between the rewinding upper roller and the rewinding lower roller, the air flow channel in the roller body, which is interconnected with the row of air suction holes, is rotated to a region where it interconnects with an exhaust opening of the air suction cover; when a certain row of the air suction holes on the surface of the rewinding lower roller are gradually rotating away from the roller gap between the rewinding upper roller and the rewinding lower roller, the air flow channel in the roller body, which is interconnected with the row of air suction holes, is rotated to a region where it deviates from the exhaust opening of the air suction cover.
Filling device intended to be installed on a toilet tank and to be coupled to water supply means, the device comprising a valve intended to be coupled to water supply means and the tank having a wall provided with an orifice dedicated to the passage of the valve and extending between an inner face and an outer face of the tank, the valve comprising: - a main body intended to extend in height inside the tank, the main body bearing means for distributing water and means for opening/closing water circulation between said supply means and the distribution means, - a connecting end intended to extend outside the reservoir, and the filling device also comprising a sealing element intended to form a sealed barrier between the main body of the valve and the inner face of the reservoir, the sealing element having a central barrel which is intended to receive a portion of the main body, the sealing element, when not installed, having a bead projecting into the central barrel, the bead being intended to be housed, when the sealing element is installed, in a peripheral groove of the main body of the valve. - a main body intended to extend in height inside the tank, the main body bearing means for distributing water and means for opening/closing water circulation between said supply means and the distribution means, - a connecting end intended to extend outside the reservoir, and
Vehicle lock for locking doors or hatches of motor vehicles, in particular of doors or hatches of agricultural machines, such as, for example, tractors, or of construction machines, including a) a lock case, b) a rotary latch, rotatably supported in the lock case, for gripping and retaining a locking bolt in a pre-latching position or a final latching position, c) a drive wheel rotatably supported in the lock case, interlocked with the rotary latch, d) a locking pawl, disposed in the lock case, for locking the drive wheel, and via it the rotary latch interlocked with the drive wheel in its pre-latching position or final latching position, e) a closing device, to which the rotary latch is drivably connected rotatably in a rotary-latch closing direction from the pre-latching position into the final latching position, wherein the drive wheel is connected directly to the closing device drivably in a drive-wheel closing direction, and a rotation of the drive wheel in the drive-wheel closing direction effects a rotation of the rotary latch in the rotary-latch closing direction, and the closing device includes a drive motor and a transmission disposed between the drive motor and the drive wheel, wherein the transmission includes at least two transmission stages (78-1;78-2) each including a planetary transmission (79-1;79-2). a) a lock case, b) a rotary latch, rotatably supported in the lock case, for gripping and retaining a locking bolt in a pre-latching position or a final latching position, c) a drive wheel rotatably supported in the lock case, interlocked with the rotary latch, d) a locking pawl, disposed in the lock case, for locking the drive wheel, and via it the rotary latch interlocked with the drive wheel in its pre-latching position or final latching position, e) a closing device, to which the rotary latch is drivably connected rotatably in a rotary-latch closing direction from the pre-latching position into the final latching position, the drive wheel is connected directly to the closing device drivably in a drive-wheel closing direction, and a rotation of the drive wheel in the drive-wheel closing direction effects a rotation of the rotary latch in the rotary-latch closing direction, and the closing device includes a drive motor and a transmission disposed between the drive motor and the drive wheel, wherein the transmission includes at least two transmission stages (78-1;78-2) each including a planetary transmission (79-1;79-2).
A guidewires twist releasing device, which releases twist of two guidewires (51, 52) passed through a guiding catheter, the device comprising: a long member that can be inserted to/pulled out from the guiding catheter; a tube comprising a first tube that is provided at the tip of the long member in such a manner as to be inserted to/pulled out from the guiding catheter and has a first lumen through which the two guidewires can be passed; a second tube; at the tip side relative to the first tube in the axis direction of the first tube in such a manner as to be inserted to/pulled out from the guiding catheter and has a second lumen through which the two guidewires (51, 52) can be passed; a gap disposed between the first tube and the second tube defining an opening to the exterior space of the tube and a connection member for connecting the first tube and the second tube so that the two guidewires (51, 52) can be continuously passed through the first lumen and the second lumen, the second tube having a slit formed in the axis direction, characterized in that the slit can be elastically deformed so that the slit opens; and the connection member is able to be elastically deformed into a curved shape in the axis direction of the first tube. a long member that can be inserted to/pulled out from the guiding catheter; a tube comprising a first tube that is provided at the tip of the long member in such a manner as to be inserted to/pulled out from the guiding catheter and has a first lumen through which the two guidewires can be passed; a second tube; at the tip side relative to the first tube in the axis direction of the first tube in such a manner as to be inserted to/pulled out from the guiding catheter and has a second lumen through which the two guidewires (51, 52) can be passed; a gap disposed between the first tube and the second tube defining an opening to the exterior space of the tube and a connection member for connecting the first tube and the second tube so that the two guidewires (51, 52) can be continuously passed through the first lumen and the second lumen, the second tube having a slit formed in the axis direction, characterized in that the slit can be elastically deformed so that the slit opens; and the connection member is able to be elastically deformed into a curved shape in the axis direction of the first tube.
Device for inserting an optical fibre through a port arranged in a rim of a bobbin, characterised in that it comprises, along the direction in which the optical fibre runs: - a system (60, 61) for moving the optical fibre along, - a tool for cutting the optical fibre, - a first optical fibre-guiding element comprising a slot, the base of which defines a curve between an inlet facing the moving system (60, 61) and an outlet that is to face the port in the rim of the bobbin. - a system (60, 61) for moving the optical fibre along, - a tool for cutting the optical fibre, - a first optical fibre-guiding element comprising a slot, the base of which defines a curve between an inlet facing the moving system (60, 61) and an outlet that is to face the port in the rim of the bobbin.
A system for increasing sample throughput, comprising: a sensor configured to generate data signals in response to being exposed to an analyte within a sample; and a processor configured to, record data points associated with the data signals, select a series of data points corresponding to a portion of a kinetic region time range from the recorded data points, convert the selected data points from corresponding to a portion of a kinetic region time range to correspond to a logarithmic time scale, evaluate the converted data points, determine a curve that fits the evaluated selected data points, determine a curve fitting equation corresponding to the curve, wherein the curve fitting equation is of the form s(t) = a*(log(t))^2 + b*log(t) + c, wherein t represents time and a, b and c are fit parameters for a second order polynomial and are determined based on the initial sensor response; extrapolate an end point response of the sensor using the curve fitting equation, and calculate, using the extrapolated end point response, a value corresponding to the analyte, thereby increasing said sample throughput. a sensor configured to generate data signals in response to being exposed to an analyte within a sample; and a processor configured to, record data points associated with the data signals, select a series of data points corresponding to a portion of a kinetic region time range from the recorded data points, convert the selected data points from corresponding to a portion of a kinetic region time range to correspond to a logarithmic time scale, evaluate the converted data points, determine a curve that fits the evaluated selected data points, determine a curve fitting equation corresponding to the curve, wherein the curve fitting equation is of the form s(t) = a*(log(t))^2 + b*log(t) + c, wherein t represents time and a, b and c are fit parameters for a second order polynomial and are determined based on the initial sensor response; extrapolate an end point response of the sensor using the curve fitting equation, and calculate, using the extrapolated end point response, a value corresponding to the analyte, thereby increasing said sample throughput.
T-cell with a chimeric antigen receptor for use in adoptive cell therapy for treating TOSO+ cancer in a subject in need thereof wherein the chimeric antigen receptor contains at least the following domains starting from the N-terminus to the C-terminus: i) an anti-TOSO single chain antibody domain, in particular, 6B10 scFv of SEQ. ID. No.2 or a homolog thereof binding specifically to TOSO having at least 70% identity with SEQ. ID. No. 2; ii) optionally a spacer domain; iii) a transmembrane domain; and iv) a cytoplasmatic signaling domain; characterized in that said T-cell with the chimeric antigen receptor initiates or augments the immune response to or is toxic to TOSO+ cancer cells in said subject.