mhurhangee/ep-ind-claims huggingface dataset:
Cam follower roller device comprising a tappet body extending along an axis, an insert mounted in said body, a pin mounted at least on said insert and a roller mounted on said pin, characterized in that the tappet body comprises abutting means extending from an inner surface of said body and at least one centring part (26; 66) protruding axially form said abutting means, the insert being mounted axially against said abutting means and comprises at least one hole inside which said centring part (26; 66) extends, retaining means (60; 70) being provided on said centring part to axially retain the insert relative to the tappet housing.
An image inspection method comprising the procedures of: making first support means (2a, 2c) support horizontally a plate-shaped inspection object having a property of transmitting infrared rays; irradiating infrared rays to the inspection object from one surface side thereof; providing mask means for shielding an infrared camera from the infrared rays around an outer side of the inspection object within a plane substantially the same as a plate surface of the inspection object; obtaining an image by imaging infrared rays having passed through the inspection object at a portion uncovered with the first support means (2a, 2c) using the infrared camera provided on the other surface of the inspection object, and inspect the image; making second support means (2b, 2d) support the inspection object at a position different from a position of the first support means (2a, 2c), and then move the first support means (2a, 2c) to evacuate to a position at which the inspection object is not shielded; and obtaining an image by imaging infrared rays having passed through the inspection object at a portion uncovered with the second support means (2b, 2d) using the infrared camera, and inspect the image. making first support means (2a, 2c) support horizontally a plate-shaped inspection object having a property of transmitting infrared rays; irradiating infrared rays to the inspection object from one surface side thereof; providing mask means for shielding an infrared camera from the infrared rays around an outer side of the inspection object within a plane substantially the same as a plate surface of the inspection object; obtaining an image by imaging infrared rays having passed through the inspection object at a portion uncovered with the first support means (2a, 2c) using the infrared camera provided on the other surface of the inspection object, and inspect the image; making second support means (2b, 2d) support the inspection object at a position different from a position of the first support means (2a, 2c), and then move the first support means (2a, 2c) to evacuate to a position at which the inspection object is not shielded; and obtaining an image by imaging infrared rays having passed through the inspection object at a portion uncovered with the second support means (2b, 2d) using the infrared camera, and inspect the image.
A battery module for a high-voltage battery, especially an electrically drivable motor vehicle, having - at least one electric storage cell, - at least two plate-like frame components arranged on the end faces, between which the electric storage cell is arranged, - at least one plate-like heat sink with at least one cooling-duct system, which heat sink is connected in thermally conductive manner to the electric storage cells, - at least one fluid inlet which is communicatively connected to the cooling-duct system via at least a first fluid connection, and - at least one fluid outlet which is communicatively connected to the cooling-duct system via at least a second fluid connection, - wherein the fluid inlet and the fluid outlet remotely from the heat sink are arranged adjacent to one in each case of the plate-like frame components, and - wherein at least one of the fluid connections (15, 16) has at least a first connection unit (6, 7), which remotely from the heat sink is arranged adjacent to the respective plate-like frame component and forms the fluid inlet or the fluid outlet, and at least one fluid line (17, 18) which is communicatively connected to the first connection unit (6, 7), characterised by at least one clamping means, the fluid connection (15, 16) which comprises the first connection unit (6, 7) having at least a second connection unit (8, 9) which is communicatively connected to the cooling-duct system, the two connection units (6, 7; 8, 9) being able to be clamped against each other by means of the clamping means, the second connection unit (8, 9) on the heat sink side being arranged adjacent to the respective plate-like frame component, and being connected on the end face to the plate-like heat sink, and the fluid line (17, 18) being connected via at least one seal (19, 20, 39) to at least one of the two connection units (6, 7; 8, 9). - at least one electric storage cell, - at least two plate-like frame components arranged on the end faces, between which the electric storage cell is arranged, - at least one plate-like heat sink with at least one cooling-duct system, which heat sink is connected in thermally conductive manner to the electric storage cells, - at least one fluid inlet which is communicatively connected to the cooling-duct system via at least a first fluid connection, and - at least one fluid outlet which is communicatively connected to the cooling-duct system via at least a second fluid connection, - wherein the fluid inlet and the fluid outlet remotely from the heat sink are arranged adjacent to one in each case of the plate-like frame components, and - wherein at least one of the fluid connections (15, 16) has at least a first connection unit (6, 7), which remotely from the heat sink is arranged adjacent to the respective plate-like frame component and forms the fluid inlet or the fluid outlet, and at least one fluid line (17, 18) which is communicatively connected to the first connection unit (6, 7),
A motor control device for electric vehicles in which power from an electric motor is transmitted to driving wheels (7L, 7R) via an automatic transmission, the motor control device comprising: a vehicle speed detecting means that detects a vehicle speed; a required driving power calculating means that calculates a required driving power (Pd) of the vehicle; and a target motor rotational speed information calculating means that calculates a target motor rotational speed information of the electric motor so that a combination of a power consumption rate of the electric motor and a transmission efficiency of the automatic transmission will become a prescribed target efficiency, based on the vehicle speed and the required driving power (Pd), characterized by a target motor torque calculating means that calculates a target motor torque (tTm) of the electric motor from the target motor rotational speed information and the required driving power (Pd); a motor drive force controlling means that achieves the target motor torque (tTm) by drive force controlling the electric motor so that an actual motor torque of the electric motor will move towards the target motor torque (tTm) calculated by this means; and the device being configured so that control of the electric motor is conducted based on the target motor rotational speed information that is determined by the target motor rotational speed information calculating means. a vehicle speed detecting means that detects a vehicle speed; a required driving power calculating means that calculates a required driving power (Pd) of the vehicle; and a target motor rotational speed information calculating means that calculates a target motor rotational speed information of the electric motor so that a combination of a power consumption rate of the electric motor and a transmission efficiency of the automatic transmission will become a prescribed target efficiency, based on the vehicle speed and the required driving power (Pd), characterized by a target motor torque calculating means that calculates a target motor torque (tTm) of the electric motor from the target motor rotational speed information and the required driving power (Pd); a motor drive force controlling means that achieves the target motor torque (tTm) by drive force controlling the electric motor so that an actual motor torque of the electric motor will move towards the target motor torque (tTm) calculated by this means; and the device being configured so that control of the electric motor is conducted based on the target motor rotational speed information that is determined by the target motor rotational speed information calculating means.
A method of identifying one or more compounds that bind to a biological target, the method comprising: (a) contacting a library of compounds, or a portion thereof, with the biological target under conditions suitable for at least one member of the library of compounds to bind to said target, wherein the compounds contain a functional moiety having one or more diversity positions, wherein the compounds contain a headpiece which includes an initiator oligonucleotide that identifies the structure of the functional moiety, wherein the functional moiety of the compounds is operatively linked via a linker to the initiator oligonucleotide, and wherein the initiator oligonucleotide forms a hairpin structure; (b) removing library members that do not bind to said target; and (c) analyzing the identifier region or regions; wherein the headpiece and linker combination is designed to have appropriate residues wherein the octanol:water coefficient is from 1.0 to 2.5. (a) contacting a library of compounds, or a portion thereof, with the biological target under conditions suitable for at least one member of the library of compounds to bind to said target, wherein the compounds contain a functional moiety having one or more diversity positions, wherein the compounds contain a headpiece which includes an initiator oligonucleotide that identifies the structure of the functional moiety, wherein the functional moiety of the compounds is operatively linked via a linker to the initiator oligonucleotide, and wherein the initiator oligonucleotide forms a hairpin structure; (b) removing library members that do not bind to said target; and (c) analyzing the identifier region or regions;
A compressed air brake system for a commercial vehicle, the front axle wheel brake cylinders of which are connected via separate compressed air lines (8; 17) to a front axle compressed air reservoir, and which compressed air brake system has a control unit which is actuated by a foot brake module and distributes the brake pressure to the front axle wheel brake cylinders and rear axle wheel brake cylinders in a manner which is dependent on the loading of the commercial vehicle, one of the compressed air lines (8; 17) having at least one shut-off valve which reacts to a pressure drop and a multiple circuit protection valve, and the multiple circuit protection valve ensuring an equalized brake pressure level between the front axle compressed air reservoir and a rear axle compressed air reservoir via a connecting line and, in the case of a pressure drop, regulating the compressed air supply in the compressed air lines (8; 17) in such a way that the compressed air supply of the intact compressed air lines (8; 17) remains ensured.
A device comprising a housing wall which has an intake (1.1) which is designed as an opening for a fan which is arranged behind the housing wall, the intake (1.1) being designed in the operating position to be free from horizontal areas at its lower end to avoid water deposits, characterized in that the intake (1.1) is designed at its lower end, starting from its fan-side edge, to descend downwards exclusively, and in that the intake (1.1) is designed at its upper end, starting from its fan-side edge, to descend downwards initially and subsequently to rise. in that the intake (1.1) is designed at its lower end, starting from its fan-side edge, to descend downwards exclusively, and in that the intake (1.1) is designed at its upper end, starting from its fan-side edge, to descend downwards initially and subsequently to rise.
A method for vitrification of radioactive high level waste to reduce the formation of persistent secondary phases comprising the steps of: providing a radioactive high level waste for vitrification, the radioactive high level waste including molybdenum, sulfur, chromium, chlorine, fluorine and/or phosphorus; providing a glass frit additive for mixing with said radioactive high level waste, said glass frit additive having Al 2 O 3, B 2 O 3, and SiO 2; providing at least one glass frit constituent selected from the group consisting of Al 2 O 3, B 2 O 3, and SiO 2 separately from said glass frit additive for mixing with said radioactive high level waste, said at least one glass frit constituent being provided by redistributing all of said Al 2 O 3 and a portion of said B 2 O 3 from said glass frit additive to individual glass frit constituents for mixing separately as raw chemicals with said radioactive high level waste, wherein the removed Al 2 O 3 and B 2 O 3 totals at least 7wt% by weight of said mixture; and, feeding said radioactive high level waste, said glass frit additive and said glass frit constituent to a melter to form a mixture for vitrification of said radioactive high level waste in which formation of secondary phases is suppressed. providing a radioactive high level waste for vitrification, the radioactive high level waste including molybdenum, sulfur, chromium, chlorine, fluorine and/or phosphorus; providing a glass frit additive for mixing with said radioactive high level waste, said glass frit additive having Al 2 O 3, B 2 O 3, and SiO 2; providing at least one glass frit constituent selected from the group consisting of Al 2 O 3, B 2 O 3, and SiO 2 separately from said glass frit additive for mixing with said radioactive high level waste, said at least one glass frit constituent being provided by redistributing all of said Al 2 O 3 and a portion of said B 2 O 3 from said glass frit additive to individual glass frit constituents for mixing separately as raw chemicals with said radioactive high level waste, wherein the removed Al 2 O 3 and B 2 O 3 totals at least 7wt% by weight of said mixture; and, feeding said radioactive high level waste, said glass frit additive and said glass frit constituent to a melter to form a mixture for vitrification of said radioactive high level waste in which formation of secondary phases is suppressed.
A mounting arrangement for an ancillary engine unit of a gas turbine engine, the mounting arrangement comprising an ancillary engine unit and a mount structure for mounting the ancillary engine unit to the gas turbine engine; wherein the mount structure has plural elongate struts which each extend from a connector portion at one end of the strut to a fastening portion at the other end of the strut, the connector portion being rigidly mechanically connected to a housing of the ancillary engine unit, and the fastening portion being rigidly mechanically fastenable to the engine; wherein the housing of the ancillary engine unit is formed of a first material having a first coefficient of thermal expansion, and the elongate struts are formed of a second material having a second coefficient of thermal expansion which is different to that of the first material, such that on thermal cycling of the engine, the housing and the struts would experience differential thermal strains at the connector portions if they were not rigidly mechanically connected to each other; wherein each elongate strut extends away from its connector portion in a direction which is crosswise to the direction of the hypothetical differential thermal strain at that connector portion so that the strut is more elastically compliant than the housing in that direction, thereby causing the strut to deflect to accommodate thermally-induced expansion and contraction of the housing on thermal cycling of the engine; and wherein the mount structure further has a containment bracket which is configured to contain each connector portion such that it is able to move substantially only in the direction of the hypothetical differential thermal strain at that connector portion.
A capacitive touch controller, comprising: a first shield terminal connectable to a first shielding area; a second shield terminal connectable to a second shielding area; a shield control module to enable or disable the first and the second shielding areas (60, 70), and to drive enabled shielding areas (60, 70); a first multiplexer adapted to selectively couple the first shield terminal or the second shield terminal to the shield control module; a first sensing terminal connectable to a first sensing element, the first sensing element being disposed opposite the first shielding area; a second sensing terminal connectable to a second sensing element, the second sensing element being disposed opposite the second shielding area; an analog front-end to detect self-capacitance of the first sensing element and the second sensing element; a second multiplexer adapted to selectively couple the first sensing terminal or the second sensing terminal to the analog front-end; and a multiplexer controller for controlling which of the first or second shielding areas (60, 70) is coupled to the shield control module by the first multiplexer, and which of the first or second sensing elements (58, 68) is coupled to the analog front-end by the second multiplexer. a first shield terminal connectable to a first shielding area; a second shield terminal connectable to a second shielding area; a shield control module to enable or disable the first and the second shielding areas (60, 70), and to drive enabled shielding areas (60, 70); a first multiplexer adapted to selectively couple the first shield terminal or the second shield terminal to the shield control module; a first sensing terminal connectable to a first sensing element, the first sensing element being disposed opposite the first shielding area; a second sensing terminal connectable to a second sensing element, the second sensing element being disposed opposite the second shielding area; an analog front-end to detect self-capacitance of the first sensing element and the second sensing element; a second multiplexer adapted to selectively couple the first sensing terminal or the second sensing terminal to the analog front-end; and a multiplexer controller for controlling which of the first or second shielding areas (60, 70) is coupled to the shield control module by the first multiplexer, and which of the first or second sensing elements (58, 68) is coupled to the analog front-end by the second multiplexer.
An e-charger comprising: a motor that drives a shaft for rotation about an axis, the axis extending through a first end of the motor and a second end of the motor; a compressor wheel that is attached to the shaft to be rotatably driven by the motor to thereby provide a compressed fluid stream; a motor case that encases the motor; an outer housing that houses the motor case; and a cooling system with an inlet, an outlet, and a plurality of passages fluidly connecting the inlet and the outlet, the plurality of passages cooperatively defined by the outer housing and the motor case, the plurality of passages including a first longitudinal passage, a second longitudinal passage, and an end passage, the first longitudinal passage extending between the first and second ends of the motor, the second longitudinal passage extending between the second and first ends of the motor, the end passage disposed proximate the first end and fluidly connecting the first longitudinal passage and the second longitudinal passage, the cooling system configured for directing flow of the coolant from the inlet, through the first longitudinal passage in a first longitudinal direction with respect to the axis, radially and circumferentially through the end passage with respect to the axis, and back through the second longitudinal passage in a second longitudinal direction with respect to the axis. a motor that drives a shaft for rotation about an axis, the axis extending through a first end of the motor and a second end of the motor; a compressor wheel that is attached to the shaft to be rotatably driven by the motor to thereby provide a compressed fluid stream; a motor case that encases the motor; an outer housing that houses the motor case; and a cooling system with an inlet, an outlet, and a plurality of passages fluidly connecting the inlet and the outlet, the plurality of passages cooperatively defined by the outer housing and the motor case, the plurality of passages including a first longitudinal passage, a second longitudinal passage, and an end passage, the first longitudinal passage extending between the first and second ends of the motor, the second longitudinal passage extending between the second and first ends of the motor, the end passage disposed proximate the first end and fluidly connecting the first longitudinal passage and the second longitudinal passage, the cooling system configured for directing flow of the coolant from the inlet, through the first longitudinal passage in a first longitudinal direction with respect to the axis, radially and circumferentially through the end passage with respect to the axis, and back through the second longitudinal passage in a second longitudinal direction with respect to the axis.
Use of a filtration device for the removal of chloramine, the filtration device comprising: a vessel for treating fluids containing a substrate, wherein the substrate comprises a thermolysis product of (a) an activated carbon substrate having a surface of CO x E y, wherein E is selected from at least one of S, Se, and Te; and wherein x and y are greater than 0; and (b) a metal salt, wherein the metal salt comprises (i) a metal carboxylate; (ii) nitrogen-containing oxyanion; (iii) a sulfur-containing anion; (iv) a metal chloride; (v) a metal phosphate; or (vi) combinations thereof, wherein the metal salt comprises a metal selected from copper, iron, manganese, silver, and combinations thereof and wherein the metal salt is thermally decomposed in the presence of the activated carbon substrate. a vessel for treating fluids containing a substrate, wherein the substrate comprises a thermolysis product of (a) an activated carbon substrate having a surface of CO x E y, wherein E is selected from at least one of S, Se, and Te; and wherein x and y are greater than 0; and (b) a metal salt, wherein the metal salt comprises (i) a metal carboxylate; (ii) nitrogen-containing oxyanion; (iii) a sulfur-containing anion; (iv) a metal chloride; (v) a metal phosphate; or (vi) combinations thereof, wherein the metal salt comprises a metal selected from copper, iron, manganese, silver, and combinations thereof and wherein the metal salt is thermally decomposed in the presence of the activated carbon substrate.