mhurhangee/ep-ind-claims huggingface dataset:
A puncture repair kit comprising a compressor device containing in a housing, a motor and a compressor main body comprising a piston connected to the motor via a crank mechanism, and a cylinder reciprocatingly enclosing the piston and forming a pump chamber to compress the air between the cylinder and the piston, and a bottle unit comprising a bottle container enclosing puncture sealing agent and a cap attached to an opening of this bottle container; said compressor device comprises a compressed air discharge port to discharge compressed air; said cap comprises an air intake port to intake the compressed air from said compressed air discharge port into the bottle container, and a sealing agent/compressed air removal port to remove in succession the puncture sealing agent and the compressed pair from said bottle container by sending this compressed air; and said compressor device has a shape of a flat rectangular box with a low height; sai d ai r i ntake port of sai d bottle unit is directly connected with said compressed air discharge port disposed on a first side surface (14a1) the compressor device in an inverted state with the cap faced downward; and characterized in that in said directly connecting state, the basal plane of said cap and the basal plane of the compressor device are flush with each other. a piston connected to the motor via a crank mechanism, and a cylinder reciprocatingly enclosing the piston and forming a pump chamber to compress the air between the cylinder and the piston, and a bottle container enclosing puncture sealing agent and a cap attached to an opening of this bottle container;
Vehicle tyre comprising a tread with at least two rows of tread bars (1, 2) running in the circumferential direction, with tread bars (1a, 2a) lying next to one another in pairs in the axial direction, which are separated from one another by transverse channels, wherein the tread bars (1a, 2a) lying next to one another are separated from one another by a cross-sectionally substantially U-shaped circumferential groove with a groove base and a sipe running from the groove base in the radial direction, wherein the circumferential grooves and the sipes run at an angle (β) to the circumferential direction of up to 30°, wherein the circumferential grooves have a depth (T 1) of 1.5 mm to 2.5 mm and wherein the sipes end at a distance (a 1), determined in the radial direction, of up to 2.0 mm above the level of the profile depth and have a width (B 2) of 0.2 mm to 0.7 mm, characterized in that the circumferential grooves and the sipes run straight in plan view and the circumferential grooves have at the periphery of the tread a width (B 1) that is 2.0 times to 3.0 times their depth (T 1).
A wheel blank positioning end face correction device, comprising a frame, a servo motor I, a support frame, bearing seats, bearings, a shaft, a rotating platform, a guide rail, a cylinder, a left slide plate, a left bearing seat, a left shaft, a left bearing, a left driven grooved friction wheel, a left workbench, corner cylinder pressure claws, mandrel seats, mandrels, a grinding wheel, a grinding wheel drive motor, a support plate, a feeding slide plate, feeding guide rails, a linear motor, a distance measuring sensor, a fixed plate, a servo motor II, a driving grooved friction wheel, a right workbench, a right driven grooved friction wheel, a right shaft, a gear rack structure and a right slide plate, characterized in that the rotating platform is provided with two stations comprising a correction station on the left and a detection station on the right, wherein at the detection station, deformation of the end face of the wheel blank on the right workbench can be detected through the distance measuring sensor, and at the correction station, the positioning end face of the wheel blank on the left workbench can be corrected according to the data measured by the distance measuring sensor, wherein the guide rail is fixed on the rotating platform, the left slide plate and the right slide plate are respectively mounted on the guide rail, the left slide plate is connected with the right slide plate via the gear rack structure, the cylinder is mounted on the lateral vertical surface of one end of the rotating platform, and the output end of the cylinder is connected with the left slide plate; the left shaft is mounted onto the left slide plate via the left bearing and the left bearing seat, the left driven grooved friction wheel is mounted on the left shaft, and the left workbench is connected onto the left shaft; and the right shaft is mounted onto the right slide plate via a bearing and a bearing seat, the right driven grooved friction wheel is mounted on the right shaft, and the right workbench is connected onto the right shaft, in such a way that the cylinder can drive the two driven grooved friction wheels, namely the left driven grooved friction wheel and the right driven grooved friction wheel, to be engaged with or disengaged from the driving grooved friction wheel, when the friction wheels are engaged, the servo motor II can drive the driving grooved friction wheel to rotate and thus drive the left workbench and the right workbench to rotate, in order to measure the end face deformation of the wheel blank on the right workbench and correct the positioning end face of the wheel blank on the left workbench, and when the friction wheels are disengaged, the servo motor I can be started to drive the rotating platform to rotate, in order to bring the wheel blank into the correction station on the left or the detection station on the right.
A control method for a hydraulic control turning system of a generator rotor, comprising: establishing a length relationship table between a plurality of hydraulic cylinders of the hydraulic control turning system; selecting a reference hydraulic cylinder; acquiring current lengths of the plurality of hydraulic cylinders when the plurality of hydraulic cylinders are located at error correction positions, wherein the error correction positions are positions where the hydraulic cylinders are located after completing at least one driving stroke; and adjusting lengths of other hydraulic cylinders corresponding to a next driving stroke to conform to the length relationship table, with the current length of the reference hydraulic cylinder as a determining reference. establishing a length relationship table between a plurality of hydraulic cylinders of the hydraulic control turning system; selecting a reference hydraulic cylinder; acquiring current lengths of the plurality of hydraulic cylinders when the plurality of hydraulic cylinders are located at error correction positions, wherein the error correction positions are positions where the hydraulic cylinders are located after completing at least one driving stroke; and adjusting lengths of other hydraulic cylinders corresponding to a next driving stroke to conform to the length relationship table, with the current length of the reference hydraulic cylinder as a determining reference.
A chair, wherein a movable portion that moves into a state of receiving a load applicable by a seated person is configured to be operable to the front, rear, right, or left with respect to a support portion, a flange part is provided on a vertical surface of a plate member of the movable portion or the support portion, the flange part has a guide surface (31b1) extending in a lateral direction and for moving a rolling body in the longitudinal direction, and a lateral dimension of the guide surface (31b1) is greater than a thickness of the plate member, and the flange part and the portion of the plate member part forming the vertical surface around the flange part are integrally formed of metal; the flange part has a shape formed around the entire circumference of a guide hole opened in the vertical surface, the rolling body is provided so as to be rolled independently on the left and right along the guide surface (31b1).
A solution preparation device, comprising a liquid container, a powder container, an upper cover and a controller; wherein the liquid container is provided with a detection element for detecting a specific parameter of a solution; the powder container is arranged above the liquid container, the upper cover covers a top end of the powder container to form a material holding cavity for placing a powder, a bottom end of the powder container is provided with a material discharge port through which the powder in the material holding cavity enters the liquid container, characterized in that the upper cover is provided with a stopper for blocking the material discharge port; the controller is configured to control the stopper according to the specific parameter to realize opening and closing of the material discharge port; wherein the solution preparation device further comprises a stirring part provided in the material holding cavity for stirring the powder in the material holding cavity; the upper cover is provided with a telescopic part, the stopper is provided at a bottom end of the telescopic part, and the stirring part is provided at a lower part of the telescopic part; and the stirring part comprises a multi-layer screen arranged along a length direction of the telescopic part. the liquid container is provided with a detection element for detecting a specific parameter of a solution; the powder container is arranged above the liquid container, the upper cover covers a top end of the powder container to form a material holding cavity for placing a powder, a bottom end of the powder container is provided with a material discharge port through which the powder in the material holding cavity enters the liquid container, characterized in that the upper cover is provided with a stopper for blocking the material discharge port; the controller is configured to control the stopper according to the specific parameter to realize opening and closing of the material discharge port; wherein the solution preparation device further comprises a stirring part provided in the material holding cavity for stirring the powder in the material holding cavity; the upper cover is provided with a telescopic part, the stopper is provided at a bottom end of the telescopic part, and the stirring part is provided at a lower part of the telescopic part; and the stirring part comprises a multi-layer screen arranged along a length direction of the telescopic part.
A solar cell cut into a plurality of sub-cells, comprising: the plurality of sub-cells, each of the sub-cells comprising a singulated and physically separated semiconductor substrate portion of a single semiconductor substrate, wherein adjacent ones of the singulated and physically separated semiconductor substrate portions have a groove there between; and a monolithic metallization structure disposed on the semiconductor substrate, wherein a portion of the monolithic metallization structure couples ones of the plurality of sub-cells such that the metallization structure acts as a backplane to hold the sub-cells together, thereby enabling interconnection of the sub-cells, wherein the groove between adjacent ones of the singulated and physically separated semiconductor substrate portions exposes a portion of the monolithic metallization structure. the plurality of sub-cells, each of the sub-cells comprising a singulated and physically separated semiconductor substrate portion of a single semiconductor substrate, wherein adjacent ones of the singulated and physically separated semiconductor substrate portions have a groove there between; and a monolithic metallization structure disposed on the semiconductor substrate, wherein a portion of the monolithic metallization structure couples ones of the plurality of sub-cells such that the metallization structure acts as a backplane to hold the sub-cells together, thereby enabling interconnection of the sub-cells, wherein the groove between adjacent ones of the singulated and physically separated semiconductor substrate portions exposes a portion of the monolithic metallization structure.
A master integrated circuit, IC comprising: a master two-wire bus interface coupled to a two-wire bus; a clock source operative to produce a clock signal having a clock cycle, the clock source producing a clock tick once per clock cycle; and a master control circuit configured to: set and send to a remote slave IC a stride length comprising a plurality of clock cycles; and send only one clock tick from the clock source through the master two-wire bus interface per stride length to cause a remote counter of the remote slave IC to change by the plurality of clock cycles on receipt of the only one clock tick. a master two-wire bus interface coupled to a two-wire bus; a clock source operative to produce a clock signal having a clock cycle, the clock source producing a clock tick once per clock cycle; and a master control circuit configured to: set and send to a remote slave IC a stride length comprising a plurality of clock cycles; and send only one clock tick from the clock source through the master two-wire bus interface per stride length to cause a remote counter of the remote slave IC to change by the plurality of clock cycles on receipt of the only one clock tick. set and send to a remote slave IC a stride length comprising a plurality of clock cycles; and send only one clock tick from the clock source through the master two-wire bus interface per stride length to cause a remote counter of the remote slave IC to change by the plurality of clock cycles on receipt of the only one clock tick.
A method for vehicle-to-vehicle charging for electric vehicles, comprising the steps: providing a three phase bi-directional on-board charger of a first electric vehicle comprising at least one power factor correction unit and at least one isolated DC-DC converter, wherein the power factor correction unit comprises switches (S1-S4), providing a multi-port unit, switching the switches (S1-S4) of the power factor correction unit of the bi-directional on-board charger of the first electric vehicle such that a DC power is provided at a first terminal L1 and a second terminal L2 of the three phase bi-directional on board-charger of the first electric vehicle; and transferring the DC power from the first terminal L1 of the first electric vehicle to an energy storage system of a second electric vehicle, and from the second terminal L2 of the first electric vehicle to an energy storage system of a third electric vehicle, wherein the first electric vehicle is connectable to the second electric vehicle and to the third electric vehicle by means of the multi-port unit, wherein the multi-port unit comprises a common neutral conductor and wherein the multi-port unit is configured to provide a communication between the first electrical vehicle and the second electrical vehicle and the third electrical vehicle. providing a three phase bi-directional on-board charger of a first electric vehicle comprising at least one power factor correction unit and at least one isolated DC-DC converter, wherein the power factor correction unit comprises switches (S1-S4), providing a multi-port unit, switching the switches (S1-S4) of the power factor correction unit of the bi-directional on-board charger of the first electric vehicle such that a DC power is provided at a first terminal L1 and a second terminal L2 of the three phase bi-directional on board-charger of the first electric vehicle; and transferring the DC power from the first terminal L1 of the first electric vehicle to an energy storage system of a second electric vehicle, and from the second terminal L2 of the first electric vehicle to an energy storage system of a third electric vehicle, wherein the first electric vehicle is connectable to the second electric vehicle and to the third electric vehicle by means of the multi-port unit, wherein the multi-port unit comprises a common neutral conductor and wherein the multi-port unit is configured to provide a communication between the first electrical vehicle and the second electrical vehicle and the third electrical vehicle.
A proportional counter tube comprising: an envelope which is shaped like a tube and which serves as a cathode; an anode which is provided in the envelope and is arranged in axial alignment with the envelope; gas which is filled in the envelope and is capable of absorbing radiation and ionizing, the gas being composed of rare gas and a few percent of molecular gas, the rare gas including at least one of Ne, Ar, Kr and Xe; a radiation application window which is made in the envelope and allows radiation to enter the envelope, characterized in that the gas contains 0.1% or more of nitrogen and 0.01% or more of hydrogen in terms of total pressure as the molecular gas. an envelope which is shaped like a tube and which serves as a cathode; an anode which is provided in the envelope and is arranged in axial alignment with the envelope; gas which is filled in the envelope and is capable of absorbing radiation and ionizing, the gas being composed of rare gas and a few percent of molecular gas, the rare gas including at least one of Ne, Ar, Kr and Xe; a radiation application window which is made in the envelope and allows radiation to enter the envelope, characterized in that the gas contains 0.1% or more of nitrogen and 0.01% or more of hydrogen in terms of total pressure as the molecular gas.
Flat mop cover for arranging on a mop cover holder, comprising an elongate base body, an active substance which inhibits or prevents the growth of bacteria and/or viruses being assigned to the base body, fibres, threads or fringes being assigned to the base body, the active substance from which the fibres, threads or fringes are manufactured being distributed within the material, the fibres, threads or fringes having a free end which can be turned towards the surface to be cleaned, characterised in that the active substance is distributed homogeneously within the material, the active substance being introduced into a melt of the material used for fibre production, the active substance being present in a fibre, a thread or a fringe in a proportion by weight of 0.0001 to 2 %, preferably of 0.001 % to 0.05 %.
A composition comprising: (a) an anti-KIR antibody comprising a heavy chain variable region CDR1 having the sequence set forth in SEQ ID NO:7, a heavy chain variable region CDR2 having the sequence set forth in SEQ ID NO:8, a heavy chain variable region CDR3 having the sequence set forth in SEQ ID NO:9, a light chain variable region CDR1 having the sequence set forth in SEQ ID NO:10, a light chain variable region CDR2 having the sequence set forth in SEQ ID NO:11 and a light chain variable region CDR3 having the sequence set forth in SEQ ID NO:12, and (b) an anti-CS1 antibody comprising a heavy chain variable region CDR1 having the sequence set forth in SEQ ID NO:23, a heavy chain variable region CDR2 having the sequence set forth in SEQ ID NO:24, a heavy chain variable region CDR3 having the sequence set forth in SEQ ID NO:25, a light chain variable region CDR1 having the sequence set forth in SEQ ID NO:26, a light chain variable region CDR2 having the sequence set forth in SEQ ID NO:27 and a light chain variable region CDR3 having the sequence set forth in SEQ ID NO:28. (a) an anti-KIR antibody comprising a heavy chain variable region CDR1 having the sequence set forth in SEQ ID NO:7, a heavy chain variable region CDR2 having the sequence set forth in SEQ ID NO:8, a heavy chain variable region CDR3 having the sequence set forth in SEQ ID NO:9, a light chain variable region CDR1 having the sequence set forth in SEQ ID NO:10, a light chain variable region CDR2 having the sequence set forth in SEQ ID NO:11 and a light chain variable region CDR3 having the sequence set forth in SEQ ID NO:12, and (b) an anti-CS1 antibody comprising a heavy chain variable region CDR1 having the sequence set forth in SEQ ID NO:23, a heavy chain variable region CDR2 having the sequence set forth in SEQ ID NO:24, a heavy chain variable region CDR3 having the sequence set forth in SEQ ID NO:25, a light chain variable region CDR1 having the sequence set forth in SEQ ID NO:26, a light chain variable region CDR2 having the sequence set forth in SEQ ID NO:27 and a light chain variable region CDR3 having the sequence set forth in SEQ ID NO:28.
A viscosity modifier represented by the following general formula: where: R 1 to R 4 each represent a linear alkyl group having 1 to 13 carbon atoms; R 5 and R 6 each represent a group represented by the following formula or; m and n each represent a number from 3 to 15; x represents a number from 40 to 800; and y represents a number equal to or more than 1, provided that each of a total number of carbon atoms in R 1 and R 2 and a total number of carbon atoms in R 3 and R 4 needs to be from 10 to 14
A method for detecting anomalous Automatic Identification System, AIS, message signals in a plurality of AIS message signals received by at least one satellite in space, the method comprising: identifying a plurality of message characteristics associated with the plurality of AIS message signals; fitting one or more group characterisation criteria comprising a computational function to the plurality of message characteristics of the plurality of received AIS message signals; computing a computed message characteristic for a selected message signal based on the computational function as fitted; and detecting whether a received message characteristic associated with the selected message signal conforms to the computed message characteristic within a predetermined tolerance. identifying a plurality of message characteristics associated with the plurality of AIS message signals; fitting one or more group characterisation criteria comprising a computational function to the plurality of message characteristics of the plurality of received AIS message signals; computing a computed message characteristic for a selected message signal based on the computational function as fitted; and detecting whether a received message characteristic associated with the selected message signal conforms to the computed message characteristic within a predetermined tolerance.