mhurhangee/ep-ind-claims huggingface dataset:
A hybrid vehicle including an engine (Eng) and a motor generator as drive sources, a first clutch interposed between the engine (Eng) and the motor generator and released by supplying hydraulic oil, and a second clutch interposed between the motor generator and drive wheels and engaged by supplying the hydraulic oil, the hybrid vehicle being able to travel in a hybrid travel mode in which the engine (Eng) and the motor generator are used as the drive sources by engaging the first clutch and the second clutch, comprising: a mechanical oil pump which discharges the hydraulic oil by being driven by a drive force of the vehicle; an electrical oil pump which discharges the hydraulic oil by being driven by an electric motor for pump; start-time slip control means adapted to cause the second clutch to transition to an engaged state after setting the second clutch in a slip state when the vehicle starts in the hybrid start mode; characterized by motor temperature estimating means adapted to estimate the temperature of a magnet of the electric motor based on the temperature of the hydraulic oil and an operating condition of the electric motor when the second clutch is controlled to be in the slip state; and motor restricting means adapted to restrict and reduce an output torque and a lower limit rotation speed of the electric motor when the estimated temperature of the magnet exceeds a restrictive temperature. a mechanical oil pump which discharges the hydraulic oil by being driven by a drive force of the vehicle; an electrical oil pump which discharges the hydraulic oil by being driven by an electric motor for pump; start-time slip control means adapted to cause the second clutch to transition to an engaged state after setting the second clutch in a slip state when the vehicle starts in the hybrid start mode; characterized by motor temperature estimating means adapted to estimate the temperature of a magnet of the electric motor based on the temperature of the hydraulic oil and an operating condition of the electric motor when the second clutch is controlled to be in the slip state; and motor restricting means adapted to restrict and reduce an output torque and a lower limit rotation speed of the electric motor when the estimated temperature of the magnet exceeds a restrictive temperature.
Motorcycle seat assembly having a support structure and seat upholstery arranged on the support structure, as well as a seat upholstery cover spanning the seat upholstery, the support structure having a first side which faces the seat upholstery and a second side which faces away from the seat upholstery, and the second side being provided with at least one portion having an outer edge region (24, 25, 26, 27), and at least one portion (18, 19, 20, 21) of the seat upholstery cover overlapping at least one part of the portion (24, 25, 26, 27) of the outer edge region, the seat upholstery cover being a resilient, three-dimensional moulded body, characterized in that the moulded body is configured such that, in the case of an assembly with a region which overlaps a part of the portion of the outer edge region of the support structure, the moulded body which is separated from the support structure and/or the seat upholstery at least largely retains its three-dimensional configuration when lying on a planar base.
Device having at least one rolling body element, at least one control unit and at least one sensor unit which is at least partially arranged in a recess in the rolling body element and which has at least one acceleration sensor (14, 16, 17) which is provided for sensing a change over time in the slip of the rolling body element which occurs during an operating process, and wherein the control unit is provided for emitting a signal if at least one value of the sensed slip exceeds a threshold value stored in the control unit.
A method executed by at least one processor comprising a first compute node, the method comprising the steps of: coupling to a second compute node via a network; executing an application locally on the first compute node; and sending state information, which relates to an execution state of the application and which is included locally on the first compute node, from the first compute node to the second compute node when a security credential satisfies a security threshold; wherein the security credential is based on a security status for the second compute node; wherein a broker module, which couples to the first node, determines whether the security credential satisfies the security threshold; and characterised in that (i) the second compute node executes another instance of the application in a restricted secure mode when the broker module determines the security credential does not satisfy the security threshold; and (ii) the restricted secure mode includes restricted access to memory included in the second compute node. coupling to a second compute node via a network; executing an application locally on the first compute node; and sending state information, which relates to an execution state of the application and which is included locally on the first compute node, from the first compute node to the second compute node when a security credential satisfies a security threshold; wherein the security credential is based on a security status for the second compute node; wherein a broker module, which couples to the first node, determines whether the security credential satisfies the security threshold; and characterised in that (i) the second compute node executes another instance of the application in a restricted secure mode when the broker module determines the security credential does not satisfy the security threshold; and (ii) the restricted secure mode includes restricted access to memory included in the second compute node.
A plant growing system comprising (a) plant life; (b) a super amount of a controlled-release fertilizer to provide season-long performance, said controlled-release fertilizer releases nutrients over a four, five, six, seven, eight, or nine month time period; and (c) growing media, wherein said plant growing system is contained in a pot or container, characterized in that said super amount of a controlled-release fertilizer is 15 to 60 grams of a controlled-release fertilizer per a greater than a 0.8 liter pot or container, and further the plant growing system has an electrical conductivity of 7 mS/cm to 18 mS/cm using the PourThru method, wherein the growing media are soilless growing media. (a) plant life; (b) a super amount of a controlled-release fertilizer to provide season-long performance, said controlled-release fertilizer releases nutrients over a four, five, six, seven, eight, or nine month time period; and (c) growing media, wherein said plant growing system is contained in a pot or container, characterized in that said super amount of a controlled-release fertilizer is 15 to 60 grams of a controlled-release fertilizer per a greater than a 0.8 liter pot or container, and further the plant growing system has an electrical conductivity of 7 mS/cm to 18 mS/cm using the PourThru method, wherein the growing media are soilless growing media.
A glycidyl ether toughener, made from a method comprising the steps of: a. providing a polymer; b. adding epichlorohydrin to the polymer with mixing; c. heating the mixture to a maximum temperature of 90° C; d. holding the mixture for a set time; e. distilling the mixture with aqueous sodium hydroxide; f. filtering the mixture; g. adjusting the pH with monosodium phosphate; h. adding the mixture to water; and i separating the organic layer for further distillation and removal of volatiles, wherein - the glycidyl ether toughener is an epoxy terminated butadiene polymer toughener, and the polymer in steps a. and b. is hydroxyl terminated butadiene polymer; or - the glycidyl ether toughener is an epoxy terminated butadiene acrylonitrile copolymer toughener, and the polymer in steps a. and b. is hydroxyl terminated butadiene copolymer. a. providing a polymer; b. adding epichlorohydrin to the polymer with mixing; c. heating the mixture to a maximum temperature of 90° C; d. holding the mixture for a set time; e. distilling the mixture with aqueous sodium hydroxide; f. filtering the mixture; g. adjusting the pH with monosodium phosphate; h. adding the mixture to water; and i separating the organic layer for further distillation and removal of volatiles, wherein - the glycidyl ether toughener is an epoxy terminated butadiene polymer toughener, and the polymer in steps a. and b. is hydroxyl terminated butadiene polymer; or - the glycidyl ether toughener is an epoxy terminated butadiene acrylonitrile copolymer toughener, and the polymer in steps a. and b. is hydroxyl terminated butadiene copolymer. - the glycidyl ether toughener is an epoxy terminated butadiene polymer toughener, and the polymer in steps a. and b. is hydroxyl terminated butadiene polymer; or - the glycidyl ether toughener is an epoxy terminated butadiene acrylonitrile copolymer toughener, and the polymer in steps a. and b. is hydroxyl terminated butadiene copolymer.
A biological fluid collection device (10, 100), comprising: an inlet portion (20, 120); an outlet portion (22, 122); an outer wall (17, 117) spanning the inlet portion (20, 120) and the outlet portion (22, 122); an inner wall (18, 118) disposed within the outer wall (17, 117) and spaced from the outer wall (17, 117), the inner wall (18, 118) defining a chamber (30, 130) therein and including a first end (32, 132) and a second end (34, 134), the first end (32, 132) in fluid communication with the inlet portion (20, 120) and the second end (34, 134) defines an exit aperture (36, 136); a flow channel (42, 142) disposed between the outer wall (17, 117) and the inner wall (18, 118), the flow channel (42, 142) in fluid communication with the inlet portion (20, 120); a mixing portion (24, 124) disposed between the second end (34, 134) of the inner wall (18, 118) and the outlet portion (22, 122); and a sample stabilizer disposed within an interior portion of the outer wall (17, 117). an inlet portion (20, 120); an outlet portion (22, 122); an outer wall (17, 117) spanning the inlet portion (20, 120) and the outlet portion (22, 122); an inner wall (18, 118) disposed within the outer wall (17, 117) and spaced from the outer wall (17, 117), the inner wall (18, 118) defining a chamber (30, 130) therein and including a first end (32, 132) and a second end (34, 134), the first end (32, 132) in fluid communication with the inlet portion (20, 120) and the second end (34, 134) defines an exit aperture (36, 136); a flow channel (42, 142) disposed between the outer wall (17, 117) and the inner wall (18, 118), the flow channel (42, 142) in fluid communication with the inlet portion (20, 120); a mixing portion (24, 124) disposed between the second end (34, 134) of the inner wall (18, 118) and the outlet portion (22, 122); and a sample stabilizer disposed within an interior portion of the outer wall (17, 117).
Extruded, rolled and/or forged product, of which the recrystallization rate is less than 30%, comprising an aluminium-based alloy comprising 2.12wt. % to 2.37wt. % Cu, 1.3wt. % to 1.6wt. % Li, 0.1wt. % to 0.5wt. % Ag, 0.2wt. % to 0.6wt. % Mg, 0.05wt. % to 0.15wt. % Zr, 0.1wt. % to 0.5wt. % Mn, 0.01wt. % to 0.12wt. % Ti optionally at least one element chosen from amongst Cr, Sc and Hf, the quantity of the element, if it is chosen, being from 0.05wt. % to 0.3wt. % Cr and Sc, 0.05wt. % to 0.5wt. % Hf, a quantity of Fe and Si each less than or equal to 0.1wt. %, and unavoidable impurities at a content, each of less than or equal to 0.05wt. % and 0.15wt. % in total. 2.12wt. % to 2.37wt. % Cu, 1.3wt. % to 1.6wt. % Li, 0.1wt. % to 0.5wt. % Ag, 0.2wt. % to 0.6wt. % Mg, 0.05wt. % to 0.15wt. % Zr, 0.1wt. % to 0.5wt. % Mn, 0.01wt. % to 0.12wt. % Ti
Method for the laser welding of two parts to be joined (1, 2; 1a, 2a; 1b, 2b; 1c, 2c; 1d, 2d) held against each other in a lap joint and made of a metal material, wherein, in order to form a lap joint, either the joining flange (3, 3a, 3c, 3d) of the first part to be joined (1, 1a, 1c, 1d) is angled in relation to adjacent regions, and a gap (10, 10a, 10c, 10d) is automatically incurred by the curvature of the part to be joined (1, 1a, 1c, 1d) incurred by the inclination, or both parts to be joined (1b, 2b) are flat, and the joining flange is held at the joining zone at an angle of 5° to 45°, wherein, in both cases, the first part to be joined (1, 1a, 1b, 1c, 1d) has a joining flange (3, 3a, 3b, 3c, 3d) with an end face, and the second part to be joined (2, 2a, 2b, 2c, 2d) has a joining zone (6, 6a, 6b, 6c, 6d) on a flat side, wherein, for the laser welding process, the first part to be joined (1, 1a, 1b, 1c, 1d) is held in contact, by means of a side of its joining flange (3, 3a, 3b, 3c, 3d), with the joining zone (6, 6a, 6b, 6c, 6d) of the second part to be joined (2, 2a, 2b, 2c, 2d), wherein, between the two parts to be joined, in the contact region of the two parts to be joined (1, 2; 1a, 2a; 1b, 2b; 1c, 2c; 1d, 2d), a gap (10, 10a, 10b, 10c, 10d) is provided which widens in the direction away from the side to which the laser is applied, and wherein the welding is carried out in such a way that the weld seam which is formed extends as far as into the gap (10, 10a, 10b, 10c, 10d) and, as a result, a gap bottom is formed in the gap (10, 10a, 10b, 10c, 10d) which spaces apart the mutually opposite surfaces of the parts to be joined (1, 2; 1a, 2a; 1b, 2b; 1c, 2c; 1d, 2d), characterised in that the laser beam is directed into the throat formed by the joining zone (6, 6a, 6b, 6c, 6d) and the joining flange (3,3a, 3b, 3c, 3d) at an angle (α) of 1° to 45° in relation to the plane of the joining zone (6, 6a, 6b, 6c, 6d), and the welding is carried out in such a way that, due to the gap bottom, the gap width of the gap between the parts to be joined on the side facing away from the laser beam, does not at any point have a zero extension, or is so narrow that the corrosion coating which is desired cannot pass into this, and wherein, after the welding process, the parts to be joined (1, 2; 1a, 2a; 1b, 2b; 1c, 2c; 1d, 2d) are provided with a corrosion protection coating, preferably a KTL coating, at least in the region of the gap bottom.
Directional coupler with at least four terminals (10, 11, 12, 13) which are located at the ends of two strip lines (2, 3) which are arranged spatially near to one another, and a terminating impedance, wherein the directional coupler is configured such that signals from a first terminal couple to a third terminal with very low attenuation, wherein signals from a second terminal couple to the third terminal with high attenuation, wherein signals from the first terminal couple to a fourth terminal with high attenuation, wherein signals from the second terminal couple to the fourth terminal with very low attenuation, wherein the fourth terminal is connected with the terminating impedance, wherein the terminating impedance is dimensioned such that it causes calculated mismatching of the fourth terminal with respect to one of the strip lines and reflection of a component of a signal at the fourth terminal, wherein the signal reflected at the fourth terminal and a signal present at the third terminal at least partially interfere destructively on one of the strip lines, wherein the terminating impedance is dimensioned such that it causes a phase difference of 180° between the signal reflected at the fourth terminal and the signal entering at the third terminal, wherein the terminating impedance is an ohmic resistance and an inductance and a capacitance, wherein the directional coupler comprises at least one mismatch of the first terminal and/or the second terminal and/or the third terminal, and wherein the at least one mismatch is formed such that it contributes further to the destructive interference of the signals at the third terminal.
Resealable container, comprising: - a container lower part, including a container base, a peripheral container wall and a container rim that forms a container opening, and - a lid including a peripheral lid rim which has a lid rim opening and a film which is permanently connected to a section of the lid rim on a first side, wherein the film covers the lid rim opening, - and wherein the film is detachably connected to a section of a container rim surface of the container rim on a second side in such manner that the film covers the container opening, characterized in that o the film is a multilayer film which has a reinforcing layer against the tearing of edges of the multilayer film, and o the multilayer film is detachably connected to a section of the container rim surface of the container rim on the second side in such manner that the multilayer film covers the container opening, and a fastening width of the detachable connection increases or decreases constantly starting from a first point of the container rim along a first section of the container rim and along a second section of the container rim as far as a second point of the container rim. - a container lower part, including a container base, a peripheral container wall and a container rim that forms a container opening, and - a lid including a peripheral lid rim which has a lid rim opening and a film which is permanently connected to a section of the lid rim on a first side, wherein the film covers the lid rim opening, - and wherein the film is detachably connected to a section of a container rim surface of the container rim on a second side in such manner that the film covers the container opening, o the film is a multilayer film which has a reinforcing layer against the tearing of edges of the multilayer film, and o the multilayer film is detachably connected to a section of the container rim surface of the container rim on the second side in such manner that the multilayer film covers the container opening, and a fastening width of the detachable connection increases or decreases constantly starting from a first point of the container rim along a first section of the container rim and along a second section of the container rim as far as a second point of the container rim.
Method for a non-destructive, non-contact image forming examination of a sample by means of heat flow thermography where the examination consists of evaluating the presence of any gradients in heat flow velocity at respective depth distances from a surface of the sample, wherein the sample is excited at least twice independently from each other by means of heat pulses generated from at least one excitation source, and thermal images of a thermal flow originating from the heat pulses are captured by at least one infrared camera, and wherein the thermal images are evaluated by means of a signal and image processing controller and depicting a thermal flow with a resolution in time and in space, characterized by: taking a first thermal image of the surface of the sample at a first time distance Δt 1 from a first triggering of the heat pulse which first time distance Δt 1 is characteristic for a gradient in heat flow velocity at a first depth below the surface of the sample; taking a second thermal image of the surface of the sample at a second time distance Δt 2 from a second triggering of the heat pulse which second time distance Δt 2 is characteristic for a gradient in the heat flow velocity at m a second depth below the first depth; and taking any subsequent thermal images of the surface of the sample at further time distances Δt n from any subsequent triggering of the heat pulses, which further time distances Δt n are characteristic for gradients in the heat flow velocity at further depths below the second depth according to a sample specific intensity vs. time curve acting as a model; and extracting from the thermal images an indication of the presence of any gradients in heat flow velocity at the respective depth distances from a surface of the sample. taking a first thermal image of the surface of the sample at a first time distance Δt 1 from a first triggering of the heat pulse which first time distance Δt 1 is characteristic for a gradient in heat flow velocity at a first depth below the surface of the sample; taking a second thermal image of the surface of the sample at a second time distance Δt 2 from a second triggering of the heat pulse which second time distance Δt 2 is characteristic for a gradient in the heat flow velocity at m a second depth below the first depth; and taking any subsequent thermal images of the surface of the sample at further time distances Δt n from any subsequent triggering of the heat pulses, which further time distances Δt n are characteristic for gradients in the heat flow velocity at further depths below the second depth according to a sample specific intensity vs. time curve acting as a model; and extracting from the thermal images an indication of the presence of any gradients in heat flow velocity at the respective depth distances from a surface of the sample.
A dialysis fluid regeneration system, comprising: a nanostructured anode; a source of light configured to illuminate the anode; and a cathode that is oxygen permeable, the cathode being an air permeable cathode that blocks liquids but passes gases through; wherein the system is configured to regenerate a dialysis fluid by flowing the dialysis fluid through the system and illuminating the anode with the source of light as the dialysis fluid passes over the anode, thereby photo-electrochemically eliminating urea in the dialysis fluid. a nanostructured anode; a source of light configured to illuminate the anode; and a cathode that is oxygen permeable, the cathode being an air permeable cathode that blocks liquids but passes gases through; wherein the system is configured to regenerate a dialysis fluid by flowing the dialysis fluid through the system and illuminating the anode with the source of light as the dialysis fluid passes over the anode, thereby photo-electrochemically eliminating urea in the dialysis fluid.