mhurhangee/ep-ind-claims huggingface dataset:
A burner assembly for a gas grill, the grill having a fuel source, a gas distribution manifold and control valves, comprising: a burner tube having an open end, a closed end and a substantially hollow interior, the burner tube gradually tapering from the open end to the closed end; a plurality of gas ports on an upper surface of the burner tube, the gas ports projecting above the upper surface of the burner tube having a height from the upper surface and an opening at the top of the height, the opening having an enclosed area; a venturi member inserted into the open end of the burner tube, the venturi member including two opposing, generally v-shaped flanges, extending into the burner tube, namely, a top flange having an apex and a bottom flange having an apex, to restrict the interior within the burner tube adjacent to the open end of the burner tube to increase the velocity of a gas and air mixture injected into and within the burner tube; and, wherein the interior of the burner tube is free from burrs or obstructions to permit a smooth flow of fluid along the length of the interior of the burner tube and wherein, in use, a flame sits on top of the openings of the gas ports. a burner tube having an open end, a closed end and a substantially hollow interior, the burner tube gradually tapering from the open end to the closed end; a plurality of gas ports on an upper surface of the burner tube, the gas ports projecting above the upper surface of the burner tube having a height from the upper surface and an opening at the top of the height, the opening having an enclosed area; a venturi member inserted into the open end of the burner tube, the venturi member including two opposing, generally v-shaped flanges, extending into the burner tube, namely, a top flange having an apex and a bottom flange having an apex, to restrict the interior within the burner tube adjacent to the open end of the burner tube to increase the velocity of a gas and air mixture injected into and within the burner tube; and, wherein the interior of the burner tube is free from burrs or obstructions to permit a smooth flow of fluid along the length of the interior of the burner tube and wherein, in use, a flame sits on top of the openings of the gas ports.
A control apparatus of a working vehicle comprising a hydraulic circuit which is a closed circuit having a hydraulic pump driven by an engine and two hydraulic motors (10a, 10b) and in which the two hydraulic motors (10a, 10b) are connected in parallel to the hydraulic pump, a clutch being released or engaged so that a power is transmitted to an output shaft of one of the hydraulic motors (10a, 10b) via the clutch in the working vehicle, the working vehicle traveling by a drive force of the one or two hydraulic motors (10a, 10b), the control apparatus comprising: a load detection unit configured to determine a working vehicle load of the working vehicle from a throttle output amount and an engine speed of the engine; and a control unit configured to execute control for reducing a pump injection amount of the hydraulic pump under a restriction of an upper limit injection amount of the hydraulic pump predetermined based on the working vehicle load determined by the load detection unit at a time of release shift control of the clutch and execute control for increasing a pump injection amount of the hydraulic pump under a restriction of a lower limit injection amount of the hydraulic pump predetermined based on the working vehicle load determined by the load detection unit at a time of engagement shift control of the clutch. a load detection unit configured to determine a working vehicle load of the working vehicle from a throttle output amount and an engine speed of the engine; and a control unit configured to execute control for reducing a pump injection amount of the hydraulic pump under a restriction of an upper limit injection amount of the hydraulic pump predetermined based on the working vehicle load determined by the load detection unit at a time of release shift control of the clutch and execute control for increasing a pump injection amount of the hydraulic pump under a restriction of a lower limit injection amount of the hydraulic pump predetermined based on the working vehicle load determined by the load detection unit at a time of engagement shift control of the clutch.
Steam generator for a steam cooker, wherein the steam cooker has a cooking chamber, and wherein the steam generator has: - steam generating means, - a water supply line to the steam generating means, - a cyclone separator for steam generated by the steam generating means, - a steam outlet from the cyclone separator to the cooking chamber of the steam cooker, wherein the cyclone separator has: - at least one steam inlet for introducing steam from the steam generating means arranged underneath it upwards into the cyclone duct or into the cyclone separator, - the steam outlet at the end area of the cyclone duct, - the water outlet from the cyclone separator or from the cyclone duct for discharging separated water downwards into the steam generating chamber of the steam generating means, characterized in that the cyclone separator has: - a cyclone duct extending in at least some sections in a curve for separating steam into vapor on the one hand and into water on the other, wherein - the cyclone separator with the steam generating means forms an integrated structural unit with a direct entry of steam from the steam generating means into the cyclone separator, - the cyclone duct has a cross-sectional constriction at an initial area close to the steam inlet, - the cyclone duct has a cyclone floor, - the cyclone floor extends in a radially outer area of the cyclone duct in one plane, - a cyclone side wall narrows spirally, - a deepened duct section reaching underneath the plane of the cyclone floor in the radially outer area of the cyclone duct is provided in a radially inner area of the cyclone separator. - steam generating means, - a water supply line to the steam generating means, - a cyclone separator for steam generated by the steam generating means, - a steam outlet from the cyclone separator to the cooking chamber of the steam cooker, - at least one steam inlet for introducing steam from the steam generating means arranged underneath it upwards into the cyclone duct or into the cyclone separator, - the steam outlet at the end area of the cyclone duct, - the water outlet from the cyclone separator or from the cyclone duct for discharging separated water downwards into the steam generating chamber of the steam generating means, - a cyclone duct extending in at least some sections in a curve for separating steam into vapor on the one hand and into water on the other, - the cyclone separator with the steam generating means forms an integrated structural unit with a direct entry of steam from the steam generating means into the cyclone separator, - the cyclone duct has a cross-sectional constriction at an initial area close to the steam inlet, - the cyclone duct has a cyclone floor, - the cyclone floor extends in a radially outer area of the cyclone duct in one plane, - a cyclone side wall narrows spirally, - a deepened duct section reaching underneath the plane of the cyclone floor in the radially outer area of the cyclone duct is provided in a radially inner area of the cyclone separator.
An information processing apparatus comprising: a lexical analysis unit configured to conduct lexical analysis that divides a source code on a per word basis; a compression unit configured to compress respectively an internal code related to each divided word in the source code by assigning a compression code to the internal code, on which the lexical analysis unit has conducted lexical analysis, by using a compression dictionary that associates the internal code and the compression code, the internal code being related to a character string of a word, the compression code being set by encoding as entropy coding with the appearance frequency of the word; a conversion unit configured to, when an execution command of an interpreter is received for the source code compressed by the compression unit, convert respectively the each compressed internal code in the source code into an internal code in accordance with the compression dictionary; and an execution unit configured to sequentially execute processing in accordance with the internal code converted by the conversion unit. a lexical analysis unit configured to conduct lexical analysis that divides a source code on a per word basis; a compression unit configured to compress respectively an internal code related to each divided word in the source code by assigning a compression code to the internal code, on which the lexical analysis unit has conducted lexical analysis, by using a compression dictionary that associates the internal code and the compression code, the internal code being related to a character string of a word, the compression code being set by encoding as entropy coding with the appearance frequency of the word; a conversion unit configured to, when an execution command of an interpreter is received for the source code compressed by the compression unit, convert respectively the each compressed internal code in the source code into an internal code in accordance with the compression dictionary; and an execution unit configured to sequentially execute processing in accordance with the internal code converted by the conversion unit.
A coordinate positioning apparatus comprising: a mounting surface; a motion guide (72,102) mounted on the mounting surface; a first member comprising a sensor for sensing scale markings, the first member being mounted on the motion guide (72,102); and an encoder scale member (30,40,50,90,110) comprising a first set of scale markings (36a,46a,56a,58a,96a,106a,122,124) which are, in use, sensable by the sensor; characterised in that at least part of the encoder scale member (30,40,50,90,110) is retained between the mounting surface and the motion guide (72,102) by being sandwiched therebetween such that the encoder scale member (30,40,50,90,110) is supported by the mounting surface at least in the vicinity of the first set of scale markings (36a,46a,56a,58a,96a,106a,122,124) with the first set of scale markings (36a,46a,56a,58a,96a,106a,122,124) located to be sensable by the sensor. a mounting surface; a motion guide (72,102) mounted on the mounting surface; a first member comprising a sensor for sensing scale markings, the first member being mounted on the motion guide (72,102); and an encoder scale member (30,40,50,90,110) comprising a first set of scale markings (36a,46a,56a,58a,96a,106a,122,124) which are, in use, sensable by the sensor; characterised in that at least part of the encoder scale member (30,40,50,90,110) is retained between the mounting surface and the motion guide (72,102) by being sandwiched therebetween such that the encoder scale member (30,40,50,90,110) is supported by the mounting surface at least in the vicinity of the first set of scale markings (36a,46a,56a,58a,96a,106a,122,124) with the first set of scale markings (36a,46a,56a,58a,96a,106a,122,124) located to be sensable by the sensor.
A microchip comprising: a substrate (1a, 1b); and a sample flow path within the substrate (la, 1b); wherein the sample flow path includes: a microtube having a circular cross sectional shape, wherein the microtube is buried in a groove formed on a same axis as the sample flow path within the substrate (1a, 1b); characterized by a changing flow path configured to change a cross sectional shape of the sample flow path from a quadrangular shape at a first end of the changing flow path to a circular shape at a second end of the changing flow path; wherein a first end of the microtube is connected to the second end of the changing flow path, an orifice as a second end of the microtube is adapted to discharge sample liquid into a space outside the microchip the microtube is provided downstream of the changing flow path with respect to a sample flow direction, and the microchip is adapted to be inserted at least with the orifice into an opening of a microparticle sorting apparatus. a substrate (1a, 1b); and a sample flow path within the substrate (la, 1b); wherein the sample flow path includes: a microtube having a circular cross sectional shape, wherein the microtube is buried in a groove formed on a same axis as the sample flow path within the substrate (1a, 1b); characterized by a changing flow path configured to change a cross sectional shape of the sample flow path from a quadrangular shape at a first end of the changing flow path to a circular shape at a second end of the changing flow path; wherein a first end of the microtube is connected to the second end of the changing flow path, an orifice as a second end of the microtube is adapted to discharge sample liquid into a space outside the microchip the microtube is provided downstream of the changing flow path with respect to a sample flow direction, and the microchip is adapted to be inserted at least with the orifice into an opening of a microparticle sorting apparatus. a microtube having a circular cross sectional shape, wherein the microtube is buried in a groove formed on a same axis as the sample flow path within the substrate (1a, 1b); characterized by a changing flow path configured to change a cross sectional shape of the sample flow path from a quadrangular shape at a first end of the changing flow path to a circular shape at a second end of the changing flow path; wherein a first end of the microtube is connected to the second end of the changing flow path, an orifice as a second end of the microtube is adapted to discharge sample liquid into a space outside the microchip the microtube is provided downstream of the changing flow path with respect to a sample flow direction, and the microchip is adapted to be inserted at least with the orifice into an opening of a microparticle sorting apparatus.
A substance detection sensor comprising: an insulating layer; two electrodes (5A, 5B) spaced in opposed relation to each other on the insulating layer; and conductive layers (4A, 4B) formed between the two electrodes (5A, 5B) on the insulating layer so as to electrically connect the two electrodes, and of which a swelling ratio varies depending on the type and/or amount of a specific gas, and an electrical resistance detector connected to the two electrodes (5A, 5B), the conductive layers (4A, 4B) being formed by dividing a layer into plural layers between the two electrodes (5A, 5B), so as to be disposed adjacently with a space provided therebetween in a direction in which the two electrodes (5A, 5B) oppose each other, and wherein a bridge wire to connect the conductive layers (4A, 4B) is further provided between the electrodes (5A, 5B), and the bridge wire integrally includes a first connecting wire disposed on one side in the direction in which the two electrodes (5A, 5B) oppose each other, and connected to one of the conductive layers, a second connecting wire disposed on the other side in the direction in which the two electrodes (5A, 5B) oppose each other and spaced apart from the first connecting wire, and connected to the conductive layer disposed adjacently on the other side in the direction in which the two electrodes (5A, 5B) oppose each other, and a third connecting wire that connects the first connecting wire and the second connecting wire, the electrical resistance detector detecting an electrical resistance between the two electrodes (5A, 5B). an insulating layer; two electrodes (5A, 5B) spaced in opposed relation to each other on the insulating layer; and conductive layers (4A, 4B) formed between the two electrodes (5A, 5B) on the insulating layer so as to electrically connect the two electrodes, and of which a swelling ratio varies depending on the type and/or amount of a specific gas, and an electrical resistance detector connected to the two electrodes (5A, 5B), the conductive layers (4A, 4B) being formed by dividing a layer into plural layers between the two electrodes (5A, 5B), so as to be disposed adjacently with a space provided therebetween in a direction in which the two electrodes (5A, 5B) oppose each other, and wherein a bridge wire to connect the conductive layers (4A, 4B) is further provided between the electrodes (5A, 5B), and the bridge wire integrally includes a first connecting wire disposed on one side in the direction in which the two electrodes (5A, 5B) oppose each other, and connected to one of the conductive layers, a second connecting wire disposed on the other side in the direction in which the two electrodes (5A, 5B) oppose each other and spaced apart from the first connecting wire, and connected to the conductive layer disposed adjacently on the other side in the direction in which the two electrodes (5A, 5B) oppose each other, and a third connecting wire that connects the first connecting wire and the second connecting wire, the electrical resistance detector detecting an electrical resistance between the two electrodes (5A, 5B).
Composite material having fire resistance and biological protection properties comprising a solid silicone polymer matrix and iron-based particles in effective quantities to give said composite material a density of at least 2.3 g/cm 3, and comprising, in addition to the iron-based particles, iron oxide particles, characterised in that the average size of said iron-based particles lies in the range 5 μm to 200 μm, and in that the content of said iron oxide particles is 1 wt% to 15 wt% relative to the total weight of the composite material, and in that the average size of said iron oxide particles lies in the range 0.10 μm to 0.30 μm.
Drive train for a motor vehicle, comprising - a first electric machine with a rotor and a stator for driving a driven axle which penetrates the rotor coaxially and has two axle stubs (20, 22), - a transmission stage which is coupled to the rotor and is arranged coaxially with respect to the first electric machine, - a differential which is coupled at its input element to an output element of the transmission stage, is arranged coaxially with respect to the transmission stage, and is coupled at its output elements (36, 38) to the axle stubs (20, 22), - a torque overlaying unit (46, 62) which is coupled via a boosting mechanism to the differential and is arranged coaxially with respect to the latter, the boosting mechanism comprising a coaxially arranged planetary gear mechanism with a first boosting sun and a boosting spider, on which a set of boosting planets which mesh with the first boosting sun are mounted, and the first boosting sun being coupled to the torque overlaying unit (46, 52), characterized in that the boosting planets of the boosting mechanism are configured as multi-step planets with in each case one planetary stage of greater diameter and one planetary stage of smaller diameter, the first boosting sun meshing directly with the planetary stages of greater diameter, and in that the boosting mechanism is coupled to the input element of the differential. - a first electric machine with a rotor and a stator for driving a driven axle which penetrates the rotor coaxially and has two axle stubs (20, 22), - a transmission stage which is coupled to the rotor and is arranged coaxially with respect to the first electric machine, - a differential which is coupled at its input element to an output element of the transmission stage, is arranged coaxially with respect to the transmission stage, and is coupled at its output elements (36, 38) to the axle stubs (20, 22), - a torque overlaying unit (46, 62) which is coupled via a boosting mechanism to the differential and is arranged coaxially with respect to the latter,
An occlusion detector for a dual-port surgical tourniquet cuff, comprising: a tourniquet cuff having an inflatable portion and adapted for encircling a patient's limb and being pressurized to a reference pressure level sufficient to stop arterial blood flow into the limb past the encircling cuff to facilitate the performance of a surgical procedure, wherein the inflatable portion communicates pneumatically with a first cuff port and a second cuff port; and an occlusion detector releasably connectable to the first cuff port for introducing a pneumatic pressure pulse into the first cuff port during an occlusion detection time period, the occlusion detector configured to set the level of the pressure pulse to a level that differs from the reference pressure level by at least a predetermined difference pressure for a period of time less than the occlusion detection time period, the occlusion detector being releasably connectable to the second cuff port for monitoring the pressure at the second cuff port during the occlusion detection time period, the occlusion detector produces an occlusion alarm if a fluctuation of pressure at the second cuff port is not detected within the occlusion detection time period, and the occlusion detector further sets the level of the pressure pulse introduced into the first cuff port to a level that causes the fluctuation of pressure detected in the second cuff port to be greater than a predetermined minimum pressure fluctuation level. a tourniquet cuff having an inflatable portion and adapted for encircling a patient's limb and being pressurized to a reference pressure level sufficient to stop arterial blood flow into the limb past the encircling cuff to facilitate the performance of a surgical procedure, wherein the inflatable portion communicates pneumatically with a first cuff port and a second cuff port; and an occlusion detector releasably connectable to the first cuff port for introducing a pneumatic pressure pulse into the first cuff port during an occlusion detection time period, the occlusion detector configured to set the level of the pressure pulse to a level that differs from the reference pressure level by at least a predetermined difference pressure for a period of time less than the occlusion detection time period, the occlusion detector being releasably connectable to the second cuff port for monitoring the pressure at the second cuff port during the occlusion detection time period, the occlusion detector produces an occlusion alarm if a fluctuation of pressure at the second cuff port is not detected within the occlusion detection time period, and the occlusion detector further sets the level of the pressure pulse introduced into the first cuff port to a level that causes the fluctuation of pressure detected in the second cuff port to be greater than a predetermined minimum pressure fluctuation level.