mhurhangee/ep-ind-claims huggingface dataset:
A spray application device, comprising: a nozzle configured to emit a first fluid stream in a downstream direction away from the nozzle; at least one feed port (30A,30B,30C,30D,30E) situated near the nozzle for introducing an agent into the first fluid stream to be carried by the first fluid stream in the downstream direction; and at least one cleaning port (40A,40B,40C,40D,40E) situated near the nozzle for emitting a second fluid stream in a generally upstream direction toward at least one of the nozzle or the at least one feed port (30A...30E), characterised in that: said device further comprises a mounting member that at least partially receives a portion of the at least one feed port (30A...30E) and holds the at least one feed port (30A...30E) in a fixed position relative to the nozzle, the mounting member also at least partially receiving the cleaning port (40A...40E) and holding the cleaning port (40A...40E) in a fixed position relative to the nozzle. a nozzle configured to emit a first fluid stream in a downstream direction away from the nozzle; at least one feed port (30A,30B,30C,30D,30E) situated near the nozzle for introducing an agent into the first fluid stream to be carried by the first fluid stream in the downstream direction; and at least one cleaning port (40A,40B,40C,40D,40E) situated near the nozzle for emitting a second fluid stream in a generally upstream direction toward at least one of the nozzle or the at least one feed port (30A...30E), said device further comprises a mounting member that at least partially receives a portion of the at least one feed port (30A...30E) and holds the at least one feed port (30A...30E) in a fixed position relative to the nozzle, the mounting member also at least partially receiving the cleaning port (40A...40E) and holding the cleaning port (40A...40E) in a fixed position relative to the nozzle.
An electrodeionization apparatus for producing deionized water comprising at least one deionization treatment unit provided between a cathode and an anode that are opposite to each other, said deionization treatment unit including a deionization chamber and a pair of concentration chambers (C1, C2) placed adjacent to said deionization chamber on opposite sides thereof and filled with anion exchangers, wherein said deionization chamber is partitioned by an ion exchange membrane into a first small deionization chamber (D-1) adjacent to one of said pair of concentration chambers (C1, C2) and a second small deionization chamber (D-2) adjacent to the other of said pair of concentration chambers (C1, C2); wherein said first small deionization chamber (D-1) is filled with an anion exchanger; wherein said second small deionization chamber (D-2) is filled with an anion exchanger and a cation exchanger in a sequence such that the ion exchanger, through which water that is to be treated finally passes, is the anion exchanger; wherein one anion exchange layer is formed in said first small deionization chamber (D-1); and wherein at least one anion exchange layer and at least one cation exchange layer are stacked in said second small deionization chamber (D-2) in a sequence such that the ion exchanger, through which the water that is to be treated finally passes, is the anion exchanger.
An anchorage system for installation in a borehole, including: a composite tendon adapted for insertion in a borehole when installed, the composite tendon comprising an assembly of elongate elements (4, 5) held together, wherein the assembly of elongate elements (4, 5) held together include a primary wire and a plurality of secondary wires wound around the primary wire; an anchor head including a casing; and a bearing plate adapted to have its lower surface over an opening of said borehole when installed, wherein the anchor head casing is secured at its lower end to an upper surface of the bearing plate such that, in use, the bearing plate extends between the opening of the borehole and the lower end of the anchor head casing, wherein the individual elongate elements (4, 5) are separated from each other at one end, the separated elements (4, 5) extending into the anchor head, wherein the casing has a longitudinally extending peripheral wall of cylindrical shape, wherein the tendon extends through the bearing plate, and wherein the anchor head casing is filled with an adhesive medium to secure the separated elements (4, 5) in the casing. a composite tendon adapted for insertion in a borehole when installed, the composite tendon comprising an assembly of elongate elements (4, 5) held together, wherein the assembly of elongate elements (4, 5) held together include a primary wire and a plurality of secondary wires wound around the primary wire; an anchor head including a casing; and a bearing plate adapted to have its lower surface over an opening of said borehole when installed, wherein the anchor head casing is secured at its lower end to an upper surface of the bearing plate such that, in use, the bearing plate extends between the opening of the borehole and the lower end of the anchor head casing, wherein the individual elongate elements (4, 5) are separated from each other at one end, the separated elements (4, 5) extending into the anchor head, wherein the casing has a longitudinally extending peripheral wall of cylindrical shape, wherein the tendon extends through the bearing plate, and wherein the anchor head casing is filled with an adhesive medium to secure the separated elements (4, 5) in the casing.
Ultrasonic welding device, comprising: a sonotrode arrangement, an anvil, a displacement device, and a force sensor, wherein the sonotrode arrangement comprises a sonotrode head, wherein the sonotrode arrangement is configured to transmit ultrasonic vibrations, which are generated at the sonotrode arrangement in a region remote from the sonotrode head, to the sonotrode head such that the sonotrode head vibrates in a vibration direction of the sonotrode arrangement and that the sonotrode arrangement vibrates minimally in the vibration direction at a zero-point position which is arranged spaced apart from the sonotrode head, based on the vibration direction, wherein the displacement device is configured to displace the sonotrode arrangement and the anvil relative to one another in a displacement direction, wherein the force sensor is positioned in a contact region adjacent to the zero-point position and is configured in such a manner that, with the aid of the force sensor, forces (Fs) which are exerted by the sonotrode arrangement on the force sensor parallel to the displacement direction may be measured, characterized in that, within the contact region, a maximum distance to the zero-point position is less than 20% of a distance between the zero-point position and a geometric center of the sonotrode head. a sonotrode arrangement, an anvil, a displacement device, and a force sensor, wherein the sonotrode arrangement comprises a sonotrode head, wherein the sonotrode arrangement is configured to transmit ultrasonic vibrations, which are generated at the sonotrode arrangement in a region remote from the sonotrode head, to the sonotrode head such that the sonotrode head vibrates in a vibration direction of the sonotrode arrangement and that the sonotrode arrangement vibrates minimally in the vibration direction at a zero-point position which is arranged spaced apart from the sonotrode head, based on the vibration direction, wherein the displacement device is configured to displace the sonotrode arrangement and the anvil relative to one another in a displacement direction, wherein the force sensor is positioned in a contact region adjacent to the zero-point position and is configured in such a manner that, with the aid of the force sensor, forces (Fs) which are exerted by the sonotrode arrangement on the force sensor parallel to the displacement direction may be measured, characterized in that, within the contact region, a maximum distance to the zero-point position is less than 20% of a distance between the zero-point position and a geometric center of the sonotrode head.
A negative electrode material for a secondary battery with a non-aqueous electrolyte comprising at least a silicon-silicon oxide composite and a carbon coating formed on a surface of the silicon-silicon oxide composite, the carbon coating being formed by heat CVD treatment, wherein at least the silicon-silicon oxide composite is doped with lithium, and a ratio I(SiC)/I(Si) of a peak intensity I(SiC) attributable to SiC of 2θ=35.8±0.2° to a peak intensity I(Si) attributable to Si of 2θ 28.4±0.2° satisfies a relation of I(SiC)/I(Si)≤0.03, when performing x-ray diffraction using Cu-Kα ray, and characterized in that a peak attributable to lithium aluminate is further observed in said negative electrode material, when performing x-ray diffraction using Cu-Kα ray.
A process for producing a medical device which is coated with a thin film based on carbon, comprising the steps of: - positioning a medical device to be coated inside a processing chamber, in which there is provided a target element of carbon; - reducing the pressure in the processing chamber until reaching a residual pressure between 10 -4 Pa and 10 -3 Pa; - introducing an inert gas in the processing chamber; - starting in the processing chamber a physical vapour deposition step in which a group of ions of said inert gas is formed and is accelerated against the target element so as to cause the projection of carbon atoms from the target element towards the medical device; - maintaining the physical vapour deposition step for a predefined time so as to deposit on the medical device a coating of a thin film of turbostratic carbon having a thickness between 100 nm and 1000 nm; - venting the chamber and removing the coated medical device; and characterised in that, at the end of the physical vapour deposition step and before the venting step, the pressure is brought to a value less than 10 -3 Pa and there is subsequently introduced into the processing chamber a suitable quantity of nitrogen in order to bring the pressure to a value greater than 5 x 10 -3 Pa. - positioning a medical device to be coated inside a processing chamber, in which there is provided a target element of carbon; - reducing the pressure in the processing chamber until reaching a residual pressure between 10 -4 Pa and 10 -3 Pa; - introducing an inert gas in the processing chamber; - starting in the processing chamber a physical vapour deposition step in which a group of ions of said inert gas is formed and is accelerated against the target element so as to cause the projection of carbon atoms from the target element towards the medical device; - maintaining the physical vapour deposition step for a predefined time so as to deposit on the medical device a coating of a thin film of turbostratic carbon having a thickness between 100 nm and 1000 nm; - venting the chamber and removing the coated medical device; and
A radar level gauge system for determining a filling level of a product in a tank having an electrically conducting tubular mounting structure, the radar level gauge system comprising: a transceiver for generating, transmitting and receiving electromagnetic signals; a single conductor probe electrically connected to the transceiver via a feed-through arranged at a first end of the tubular mounting structure, the single conductor probe extending through the tubular mounting structure from the first end and past a second end of the mounting structure towards and into the product in the tank for guiding an electromagnetic transmit signal from the transceiver towards a surface of the product, and for returning an electromagnetic surface reflection signal resulting from reflection of the transmit signal at the surface back towards the transceiver; an electrically conductive shielding structure radially spaced apart from the single conductor probe and extending along the single conductor probe inside the mounting structure; a connecting member extending radially from the shielding structure to electrically couple the shielding structure to an inner wall of the tubular mounting structure; and processing circuitry connected to the transceiver for determining the filling level based on the transmit signal and the surface reflection signal, characterized in that the connecting member is arranged and configured to electrically couple the shielding structure to the tank through capacitive coupling between the connecting member and the inner wall of the tubular mounting structure. a transceiver for generating, transmitting and receiving electromagnetic signals; a single conductor probe electrically connected to the transceiver via a feed-through arranged at a first end of the tubular mounting structure, the single conductor probe extending through the tubular mounting structure from the first end and past a second end of the mounting structure towards and into the product in the tank for guiding an electromagnetic transmit signal from the transceiver towards a surface of the product, and for returning an electromagnetic surface reflection signal resulting from reflection of the transmit signal at the surface back towards the transceiver; an electrically conductive shielding structure radially spaced apart from the single conductor probe and extending along the single conductor probe inside the mounting structure; a connecting member extending radially from the shielding structure to electrically couple the shielding structure to an inner wall of the tubular mounting structure; and processing circuitry connected to the transceiver for determining the filling level based on the transmit signal and the surface reflection signal, characterized in that the connecting member is arranged and configured to electrically couple the shielding structure to the tank through capacitive coupling between the connecting member and the inner wall of the tubular mounting structure.
Wheel made of fiber composite material, comprising a rim with a rim well and rim flanges, a hub as well as at least three spoke elements of fiber composite material, each spoke element forming at least one spoke between the hub and the rim, and wherein the fiber reinforcement of the spoke elements comprises one or more textile strands or layers of textile strands which run parallel to the longitudinal axis of the spoke elements and are connected in a positive-locking or in a positive-locking and materially secured manner to the inner side of the rim, wherein the textile strands or layers of textile strands of the spoke elements separate in the rim area, following: a. the rim shape in axial direction, or b. in circumferential direction, and wherein the spoke elements in the hub area abut against each other in circumferential direction on abutment surfaces formed for this purpose, characterized in that the spoke elements are supported in the hub area in axial direction between two hub parts (3a, 3) facing each other on the axis, wherein the hub parts (3a, 3b) have pins which engage in a claw-like manner between the spokes. a. the rim shape in axial direction, or b. in circumferential direction,
Driven linear axis as a robot base, comprising a housing which has a linear rail guide with two profiled rails, on which a carriage is arranged such that it can be moved linearly back and forth by means of a transport device, wherein the carriage has a guide body with two lateral runners and a multifunctional interface, wherein the carriage is guided between the two profiled rails by means of the two lateral runners, wherein the transport device comprises a belt circulating in the housing and guided over two wheels (153, 154), wherein at least one wheel is designed as a drive wheel, wherein a drive device has a torque-locked rotational connection to the drive wheel, wherein the multifunctional interface of the carriage has a connection side, which comprises a mechanical interface (132, 133; 232, 233) and a media interface (134, 135, 136; 234, 235, 236), and wherein, within the housing, at least one media-dragging device that can be moved back and forth leads a media path to the media interface (134, 135, 136; 234, 235, 236), characterized in that the drive device is configured in the form of a drive cartridge within the drive wheel. wherein the carriage has a guide body with two lateral runners and a multifunctional interface, wherein the carriage is guided between the two profiled rails by means of the two lateral runners, wherein the transport device comprises a belt circulating in the housing and guided over two wheels (153, 154), wherein at least one wheel is designed as a drive wheel, wherein a drive device has a torque-locked rotational connection to the drive wheel, wherein the multifunctional interface of the carriage has a connection side, which comprises a mechanical interface (132, 133; 232, 233) and a media interface (134, 135, 136; 234, 235, 236), and wherein, within the housing, at least one media-dragging device that can be moved back and forth leads a media path to the media interface (134, 135, 136; 234, 235, 236), characterized in that the drive device is configured in the form of a drive cartridge within the drive wheel.
Use of a fuel composition to reduce carbonaceous deposits in an engine, said use comprising operating said engine using the fuel composition and wherein the fuel composition comprises gasoline, and a succinic ester acid amine salt or a succinamide acid amine salt (both "amine salt(s)") that is the product of (a) and (b), wherein: (a) is an amine with (i) at least one tertiary nitrogen and (ii) at least one hydroxy alkyl functionality and/or at least one secondary amine functionality; (b) is a hydrocarbyl-substituted or unsubstituted succinic acid and/or anhydride; and wherein said amine salt has a concentration of at least 10 ppm by weight, based on a total weight of said fuel composition, and, wherein at least a portion of the amine salt has the formula: wherein R 1 is hydrogen or a C 1 to C 50 linear or branched hydrocarbyl group; R 4 is a C 1 to C 5 linear or branched hydrocarbyl group; and R 5 and R 6, are independently a C 1, to C 22 linear or branched hydrocarbyl group, or are moieties which, when taken together, form a 5-, 6-, or 7-membered ring, or formula: wherein R 1 is hydrogen or a C 1 to C 50 linear or branched hydrocarbyl group; R 4 and R 7 are independently a C 1 to C 5 linear or branched hydrocarbyl group; and R 5, R 6, are independently a C1, to C 22 linear or branched hydrocarbyl group, or are moieties which, when taken together, form a 5-, 6-, or 7-membered ring, n is 0 or 1, and R 8 and R 9 are independently hydrogen or a C 1 to C 22 linear or branched hydrocarbyl group, or are moieties which, when taken together, form a 5-, 6-, or 7-membered ring. (a) is an amine with (i) at least one tertiary nitrogen and (ii) at least one hydroxy alkyl functionality and/or at least one secondary amine functionality; (b) is a hydrocarbyl-substituted or unsubstituted succinic acid and/or anhydride; and wherein said amine salt has a concentration of at least 10 ppm by weight, based on a total weight of said fuel composition, and, wherein at least a portion of the amine salt has the formula: wherein R 1 is hydrogen or a C 1 to C 50 linear or branched hydrocarbyl group; R 4 is a C 1 to C 5 linear or branched hydrocarbyl group; and R 5 and R 6, are independently a C 1, to C 22 linear or branched hydrocarbyl group, or are moieties which, when taken together, form a 5-, 6-, or 7-membered ring, or formula: wherein R 1 is hydrogen or a C 1 to C 50 linear or branched hydrocarbyl group; R 4 and R 7 are independently a C 1 to C 5 linear or branched hydrocarbyl group; and R 5, R 6, are independently a C1, to C 22 linear or branched hydrocarbyl group, or are moieties which, when taken together, form a 5-, 6-, or 7-membered ring, n is 0 or 1, and R 8 and R 9 are independently hydrogen or a C 1 to C 22 linear or branched hydrocarbyl group, or are moieties which, when taken together, form a 5-, 6-, or 7-membered ring.
A device for deploying a flexible implant in the sub-retinal space, said device comprising: a distal end having a distal tip; and a proximal end, wherein: said distal end comprises an opening to accept an inserted flexible implant and is constructed and arranged to cause said implant to be flexed into a curved configuration when in a carried position and to deploy the flexed implant from said opening into a sub-retinal space; wherein a longitudinal axis of said proximal end and a longitudinal axis of said distal end form an angle of between 20° and 70°; said proximal end comprises an actuator connected to a flexible urging member, that when actuated, causes said flexible urging member to urge said flexed implant from said carried position to a deployed position via the distal end; characterised in that said actuator is a wheel rotatable toward or away from the distal tip, wherein rotational movement of said wheel causes linear movement of said implant; wherein a proximal end of said flexible urging member is secured to the wheel; and wherein rotational movement of said wheel winds or unwinds said flexible urging member around said wheel. a distal end having a distal tip; and a proximal end, wherein: said distal end comprises an opening to accept an inserted flexible implant and is constructed and arranged to cause said implant to be flexed into a curved configuration when in a carried position and to deploy the flexed implant from said opening into a sub-retinal space; wherein a longitudinal axis of said proximal end and a longitudinal axis of said distal end form an angle of between 20° and 70°; said proximal end comprises an actuator connected to a flexible urging member, that when actuated, causes said flexible urging member to urge said flexed implant from said carried position to a deployed position via the distal end; characterised in that said actuator is a wheel rotatable toward or away from the distal tip, wherein rotational movement of said wheel causes linear movement of said implant; wherein a proximal end of said flexible urging member is secured to the wheel; and wherein rotational movement of said wheel winds or unwinds said flexible urging member around said wheel. wherein a longitudinal axis of said proximal end and a longitudinal axis of said distal end form an angle of between 20° and 70°; said proximal end comprises an actuator connected to a flexible urging member, that when actuated, causes said flexible urging member to urge said flexed implant from said carried position to a deployed position via the distal end; characterised in that said actuator is a wheel rotatable toward or away from the distal tip, wherein rotational movement of said wheel causes linear movement of said implant; wherein a proximal end of said flexible urging member is secured to the wheel; and wherein rotational movement of said wheel winds or unwinds said flexible urging member around said wheel.
A method for desulfurizing hot metal using a mechanical stirring desulfurization apparatus, the method comprising blasting a CaO-based desulfurization agent having a size in diameter of 30 to 400 μm, together with a carrier gas, through a top lance onto the surface of hot metal that is being stirred with an impeller to desulfurize the hot metal, wherein the top lance is provided so as to face down in the vertical direction; characterized in that the radius R of the impeller satisfies the relation of Equation below with respect to the inner radius D of the treatment container, and the horizontal distance A from the center of the treatment container to the center of the top lance satisfies the relation of Equation below with respect to the inner radius D and the radius R of the impeller: R ≤ 1 / 2 × D R ≤ A ≤ 1 / 2 × D
A composite component for vehicles, comprising a first plastic body which has an outer face with a coating and a bonding surface with an adhesive agent, and a second plastic body which is connected with the first plastic body by the adhesive agent, characterized in that the coating on the outer face is identical to the adhesive agent and has release agent properties with respect to metals.