mhurhangee/ep-ind-claims huggingface dataset:
A multi-sectional linear ionizing bar comprising: at least one ionization cell with at least one axis-defining linear ion emitter for establishing an ion cloud along the length thereof in response to the application of an ionizing voltage thereto, the ion cloud having a plasma region with an outer peripheral boundary; means for receiving an ionizing voltage and for delivering the ionizing voltage to the linear ion emitter to thereby establish the ion cloud; a reference electrode (32a, 32b, 32') for presenting an electric field within the ion cloud in response to receipt of a non-ionizing voltage being applied to the reference electrode (32a, 32b, 32'), the electric field inducing ions to leave the plasma region; characterized by a manifold for receiving gas from a source and an array of gas orifices (26; 26', 26", 27) positioned between the electrodes (32a, 32b) or in the vicinity of electrode for delivering the gas from the manifold past the linear ion emitter such that at least some of the gas flows tangent to the outer peripheral boundary of the plasma region but substantially none of the gas flows into the plasma region. at least one ionization cell with at least one axis-defining linear ion emitter for establishing an ion cloud along the length thereof in response to the application of an ionizing voltage thereto, the ion cloud having a plasma region with an outer peripheral boundary; means for receiving an ionizing voltage and for delivering the ionizing voltage to the linear ion emitter to thereby establish the ion cloud; a reference electrode (32a, 32b, 32') for presenting an electric field within the ion cloud in response to receipt of a non-ionizing voltage being applied to the reference electrode (32a, 32b, 32'), the electric field inducing ions to leave the plasma region; characterized by a manifold for receiving gas from a source and an array of gas orifices (26; 26', 26", 27) positioned between the electrodes (32a, 32b) or in the vicinity of electrode for delivering the gas from the manifold past the linear ion emitter such that at least some of the gas flows tangent to the outer peripheral boundary of the plasma region but substantially none of the gas flows into the plasma region.
A piston (1; 500; 700) for a die-casting machine, in particular a cold chamber die-casting machine, where said machine comprises a press with a container in which the piston (1; 500; 700) is housed so as to slide, the piston (1; 500; 700) comprising, - a stem (10; 510; 710) extending from a proximal end to a distal end (12; 512; 712) along a piston axis; - a piston head (50; 550; 750) which is removably connected to the distal end (12; 512; 712) of the stem (10; 510; 710) and has a side wall with at least one sealing area (52; 552; 752) suitable to form a seal on the wall of said container of the press; and - a lubrication circuit suitable to facilitate the sliding of the piston in said container and comprising: - at least one first lubrication duct (14, 16, 18) made in the stem (10; 510; 710) and ending at the distal end (12; 512; 712) of said stem, and - at least one second duct made in the piston head (50; 550; 750), fluidically communicating with said first duct and flowing into the lateral wall at least corresponding to said sealing area (52; 552; 752), the piston (1; 500; 700) being characterized by the fact that sealed fluidic connection means (4; 560) between said first lubrication duct (14, 16, 18) and said second lubrication duct are provided between said stem (10; 510; 710) and head (50; 550; 750), said sealed fluidic connection means (4; 560) comprising a connection bushing inserted with calibrated interference one half in a terminal section of the first lubrication duct and the other half in an initial section of the second lubrication duct. - a stem (10; 510; 710) extending from a proximal end to a distal end (12; 512; 712) along a piston axis; - a piston head (50; 550; 750) which is removably connected to the distal end (12; 512; 712) of the stem (10; 510; 710) and has a side wall with at least one sealing area (52; 552; 752) suitable to form a seal on the wall of said container of the press; and - a lubrication circuit suitable to facilitate the sliding of the piston in said container and comprising: - at least one first lubrication duct (14, 16, 18) made in the stem (10; 510; 710) and ending at the distal end (12; 512; 712) of said stem, and - at least one second duct made in the piston head (50; 550; 750), fluidically communicating with said first duct and flowing into the lateral wall at least corresponding to said sealing area (52; 552; 752), - at least one first lubrication duct (14, 16, 18) made in the stem (10; 510; 710) and ending at the distal end (12; 512; 712) of said stem, and - at least one second duct made in the piston head (50; 550; 750), fluidically communicating with said first duct and flowing into the lateral wall at least corresponding to said sealing area (52; 552; 752),
A front vehicle-body structure of a vehicle, the front vehicle-body structure comprising a pair of left and right front side frames extending in a vehicle front-rear direction, wherein: each of the front side frames includes an outer member and an inner member; the outer member and the inner member each have a vertical wall surface portion (51c, 52c) in which a recessed bead or a protruding bead is formed; the recessed bead or the protruding bead is configured to extend in the vehicle front-rear direction from a front to at least a position next to a suspension tower portion; a reinforcement disposed so as to extend in the vehicle front-rear direction and extend in an up-down direction so as to divide a closed cross-section of the front side frame into left and right is included between the inner member and the outer member of the front side frame to which the suspension tower portion is connected; the reinforcement is formed to be joined to upper flange portions (51a, 52a) and lower flange portions (51b, 52b) of the outer member and the inner member of the front side frame with the reinforcement being interposed between the upper flange portions (51a, 52a) and between the lower flange portions (51b, 52b) and to linearly extend in the up-down direction; and openings long in the up-down direction are formed in the reinforcement so as to be spaced apart from each other at a predetermined interval in the vehicle front-rear direction. each of the front side frames includes an outer member and an inner member; the outer member and the inner member each have a vertical wall surface portion (51c, 52c) in which a recessed bead or a protruding bead is formed; the recessed bead or the protruding bead is configured to extend in the vehicle front-rear direction from a front to at least a position next to a suspension tower portion; a reinforcement disposed so as to extend in the vehicle front-rear direction and extend in an up-down direction so as to divide a closed cross-section of the front side frame into left and right is included between the inner member and the outer member of the front side frame to which the suspension tower portion is connected; the reinforcement is formed to be joined to upper flange portions (51a, 52a) and lower flange portions (51b, 52b) of the outer member and the inner member of the front side frame with the reinforcement being interposed between the upper flange portions (51a, 52a) and between the lower flange portions (51b, 52b) and to linearly extend in the up-down direction; and openings long in the up-down direction are formed in the reinforcement so as to be spaced apart from each other at a predetermined interval in the vehicle front-rear direction.
Method for determining a current space vector, in particular for use in a control method and/or regulating method, for a converter operated in a pulse-width modulated manner, comprising signal electronics, a power output stage having power switches arranged in three half-bridges having respectively one lower and one upper branch, and means for sampling the respective currents arranged in the three upper or lower branches of the half-bridges, characterised in that the means for sampling are operated at selectively different amplification.
A humanized cys-diabody that binds to CD8 and comprises: a variable heavy (V H) domain of SEQ ID NO: 48; and a variable light (V L) domain of SEQ ID NO: 42. a variable heavy (V H) domain of SEQ ID NO: 48; and a variable light (V L) domain of SEQ ID NO: 42.
A process of producing a microporous organic-inorganic hybrid membrane suitable for separating NH3, H 2 O, He, H2, CO 2, CO, CH 3 OH, C 2 H 5 OH, from larger molecules, based on silica, having an average pore size of less than 1.5 nm, comprising hydrolysing a silicon alkoxide of one of the following formulas: 3Si-[CmHn-Si]q [Ia-IVa] in which: R = C1-C4 alkyl, m = 1 - 8, n = 2m, 2m-2, 2m-4, 2m-6, or 2m-8, provided that n ≥ 2; and q = 1, 2, 3 or 4, optionally together with a monosilicon alkoxide having the formula 3Si tQ in which: Q = H, COOH, COOR', NH2, NHR', NR'2, F, SH, SR', OR', OC R' or NHC R', R' = C1-C6 alkyl, and R is as defined above, optionally together with a monometal alkoxide, wherein the metal is selected from silicon, yttrium, lanthanum, titanium, zirconium, hafnium, aluminium, gallium, germanium and tin, in an alcohol, in the presence of water, using a molar ratio of water to silicon of between 2 and 6, and in the presence of an acid, to produce a sol of a modified silicon (hydr)oxide, followed by precipitating modified silicon (hydr)oxide from said sol onto a mesoporous inorganic support, and drying the precipitate and calcining at a temperature between 200 and 400°C. R = C1-C4 alkyl, m = 1 - 8, n = 2m, 2m-2, 2m-4, 2m-6, or 2m-8, provided that n ≥ 2; and q = 1, 2, 3 or 4, Q = H, COOH, COOR', NH2, NHR', NR'2, F, SH, SR', OR', OC R' or NHC R', R' = C1-C6 alkyl, and R is as defined above, optionally together with a monometal alkoxide, wherein the metal is selected from silicon, yttrium, lanthanum, titanium, zirconium, hafnium, aluminium, gallium, germanium and tin, in an alcohol, in the presence of water, using a molar ratio of water to silicon of between 2 and 6, and in the presence of an acid, to produce a sol of a modified silicon (hydr)oxide, followed by precipitating modified silicon (hydr)oxide from said sol onto a mesoporous inorganic support, and drying the precipitate and calcining at a temperature between 200 and 400°C.
A control method of an outdoor unit (41, 42, 43) in an air conditioner, said outdoor unit comprising: an actuator (413, 423, 433); a drive circuit (412, 422, 432) for driving said actuator; and a control circuit (411, 421, 431) for controlling said drive circuit, wherein said drive circuit comprises: an inverter circuit for supplying an operation power supply to said actuator (413, 423, 433); and an actuator control circuit communicating with said control circuit to control the operation of said actuator through said inverter circuit; said control method comprising: performing a communication between the actuator control circuit and the control circuit, said communication showing the operating condition of said drive circuit; resetting an operation of said drive circuit when it is determined that said communication is defective, said resetting being performed by stopping power supply to said actuator control circuit while power supply to said inverter circuit is continued. an actuator (413, 423, 433); a drive circuit (412, 422, 432) for driving said actuator; and a control circuit (411, 421, 431) for controlling said drive circuit, wherein said drive circuit comprises: an inverter circuit for supplying an operation power supply to said actuator (413, 423, 433); and an actuator control circuit communicating with said control circuit to control the operation of said actuator through said inverter circuit; an inverter circuit for supplying an operation power supply to said actuator (413, 423, 433); and an actuator control circuit communicating with said control circuit to control the operation of said actuator through said inverter circuit; performing a communication between the actuator control circuit and the control circuit, said communication showing the operating condition of said drive circuit; resetting an operation of said drive circuit when it is determined that said communication is defective, said resetting being performed by stopping power supply to said actuator control circuit while power supply to said inverter circuit is continued.
Cooling circuit arrangement of an internal combustion engine, the internal combustion engine having at least one inlet side and one outlet side which are connected to one another via at least one combustion chamber, the outlet side and the inlet side additionally being connected to one another via a low-pressure exhaust gas recirculation line, via which an exhaust gas can be conveyed from the outlet side back to the inlet side, the low-pressure exhaust gas recirculation line being in thermally conductive connection with a first heat exchanger of the cooling circuit arrangement for dissipating thermal energy from the exhaust gas guided via the low-pressure exhaust gas recirculation line; the cooling circuit arrangement having at least a first partial cooling circuit and a second partial cooling circuit; at least the first heat exchanger and a first pump for conveying a cooling fluid through the first partial cooling circuit being arranged in the first partial cooling circuit; at least one second heat exchanger and a second pump for conveying a cooling fluid through the second partial cooling circuit being arranged in the second partial cooling circuit for controlling the temperature of other components of the internal combustion engine; the first partial cooling circuit and the second partial cooling circuit being fluidically connectable and separable from one another depending on an operating state (14, 15) of the cooling circuit arrangement; characterized in that a third heat exchanger is arranged in the first partial cooling circuit, which third heat exchanger transfers thermal energy between the first partial cooling circuit and a further partial cooling circuit of the cooling circuit arrangement.
A coupling for connecting pipe elements (48; 50), said coupling comprising: a plurality of segments (12; 14) attached to one another end to end surrounding a central space; adjustable attachment members positioned at opposite ends of each said segment (12; 14) for attaching said segments (12; 14) to one another; first and second arcuate projections (30; 32) positioned respectively on opposite sides of each said segment (12; 14), each said arcuate projection facing an axis extending through said central space and extending lengthwise along each said segment (12; 14), each said arcuate section having a semi-circular cross section taken parallel to said axis, said semi-circular cross section extending over at least a portion of said arcuate projection (30; 32); further comprising a first and a second relief groove, said first relief groove positioned adjacent to said first arcuate projection, said second relief groove positioned adjacent to said second arcuate projection, each said relief groove extending lengthwise along each said segment (12; 14) and facing said axis; further comprising a first shoulder positioned adjacent to said first relief groove, said first relief groove being between said first shoulder and said first arcuate projection; a second shoulder positioned adjacent to said second relief groove, said second relief groove being between said second shoulder and said second arcuate projection, wherein said first and second shoulders are adapted to contact said pipe elements (48, 50). a plurality of segments (12; 14) attached to one another end to end surrounding a central space; adjustable attachment members positioned at opposite ends of each said segment (12; 14) for attaching said segments (12; 14) to one another; first and second arcuate projections (30; 32) positioned respectively on opposite sides of each said segment (12; 14), each said arcuate projection facing an axis extending through said central space and extending lengthwise along each said segment (12; 14), each said arcuate section having a semi-circular cross section taken parallel to said axis, said semi-circular cross section extending over at least a portion of said arcuate projection (30; 32); further comprising a first and a second relief groove, said first relief groove positioned adjacent to said first arcuate projection, said second relief groove positioned adjacent to said second arcuate projection, each said relief groove extending lengthwise along each said segment (12; 14) and facing said axis; further comprising a first shoulder positioned adjacent to said first relief groove, said first relief groove being between said first shoulder and said first arcuate projection; a second shoulder positioned adjacent to said second relief groove, said second relief groove being between said second shoulder and said second arcuate projection, wherein said first and second shoulders are adapted to contact said pipe elements (48, 50).
Lighting optics comprising: first optics, which extend from a planar base region to a tip, second optics, which comprise an opening into which the first optics project at least with the tip thereof and which are configured to couple light decoupled by the first optics into the opening and emit it from the second optics in a directed manner, characterized in that a base region of the second optics comprises a recess, preferably a central recess, which is provided in a region that is not effective for the emission of light, and that the second optics are designed as a solid body. first optics, which extend from a planar base region to a tip, second optics, which comprise an opening into which the first optics project at least with the tip thereof and which are configured to couple light decoupled by the first optics into the opening and emit it from the second optics in a directed manner, characterized in that a base region of the second optics comprises a recess, preferably a central recess, which is provided in a region that is not effective for the emission of light, and that the second optics are designed as a solid body.
A welding-type power supply, comprising: power conversion circuitry configured to convert input power to welding-type power; a voltage monitor configured to measure a power supply output voltage of the power conversion circuitry; characterized by communication circuitry configured to transmit a first communication to a welding device coupled to a weld circuit, wherein the first communication comprises a command to the welding device to close a switch to complete a measurement circuit, wherein the measurement circuit comprises a first portion of the weld circuit; and control circuitry configured to control the power conversion circuitry to: output a first signal at a controlled voltage to the measurement circuit; and after the first communication, limit a current of the first signal to a first threshold level; wherein the communication circuitry is configured to receive, from the welding device, a second communication indicating a welding device voltage measured in response to the first signal; and wherein the control circuitry is configured to determine a resistance of a second portion of the weld circuit based on the power supply output voltage, the welding device voltage, and the current of the first signal. power conversion circuitry configured to convert input power to welding-type power; a voltage monitor configured to measure a power supply output voltage of the power conversion circuitry; characterized by communication circuitry configured to transmit a first communication to a welding device coupled to a weld circuit, wherein the first communication comprises a command to the welding device to close a switch to complete a measurement circuit, wherein the measurement circuit comprises a first portion of the weld circuit; and control circuitry configured to control the power conversion circuitry to: output a first signal at a controlled voltage to the measurement circuit; and after the first communication, limit a current of the first signal to a first threshold level; output a first signal at a controlled voltage to the measurement circuit; and after the first communication, limit a current of the first signal to a first threshold level; wherein the communication circuitry is configured to receive, from the welding device, a second communication indicating a welding device voltage measured in response to the first signal; and wherein the control circuitry is configured to determine a resistance of a second portion of the weld circuit based on the power supply output voltage, the welding device voltage, and the current of the first signal.
An isolated or purified, KRAS G12D-specific TCR comprising the amino acid sequences of SEQ ID NOs: 9-11 and (i) SEQ ID NOs: 12-14 or (ii) SEQ ID NOs: 20-22.
A utility vehicle comprising a frame and wheels (18A, 20A), an engine coupled to provide motive power driving the wheels, and at least one bodywork panel pivotably attached to the frame by a pair of hinge structures, each of said hinge structures comprising a first portion securable to said vehicle body panel and a second portion securable to said vehicle frame, said first and second portions being pivotally interconnected to pivot said body panel about a given axis; each of said hinge structures comprising a projection having a longitudinal axis coincident with said given axis and receivable in a bore in said second portion, said projection being movable in the axial direction to engage an aperture in the first portion characterized in that the projection has a first indentation for receiving a locking device extending through the second portion and into said indentation at an angle to the longitudinal axis of said projection, thereby locking the projection in engagement with the first portion, wherein the pair of hinge structures share a common second portion.