mhurhangee/ep-ind-claims huggingface dataset:
Fuel injector having an injector housing which forms a high-pressure chamber, which high-pressure chamber is connectable to a high-pressure source and in which high-pressure chamber an injection valve element is arranged such that it can perform stroke movements, wherein the high-pressure chamber is delimited at least in regions by two elements (16; 16a; 16b, 17; 17a), an inner, first, preferably sleeve-shaped element (16; 16a; 16b) with a first recess (52; 52a) arranged in the first element (16; 16a; 16b) for forming the high-pressure chamber, and a second element (17; 17a) which directly surrounds the first element (16; 16a; 16b) and which has a second recess (53; 53a), wherein the second recess (53; 53a) surrounds the first element (16; 16a; 16b) at the outer circumferential surface thereof, and wherein the second element (17; 17a) is connected to the first element (16; 16a; 16b) such that a pressure force acting radially on said first element is generated, characterized in that the first recess is arranged eccentrically in the first element (16a; 16b), and in that, in that region of the first element which has the greatest wall thickness (a), there is formed a bore which is arranged parallel to a longitudinal axis.
A computer-implemented method, comprising: selecting a plurality of sets of source and receiver locations over a survey area to improve a velocity model of a region of interest, wherein the region of interest corresponds to a problematic region in which use of the velocity model results in poor image quality; performing forward modeling on the velocity model based on each source and receiver pair of the plurality of sets of source and receiver locations to generate low frequency seismic data; performing a reverse time migration on the low frequency seismic data to reposition refraction wave and/or diving wave energy of each source and receiver pair of the plurality of sets of source and receiver locations to generate a diving wave illumination image; extracting, for each source and receiver pair of the plurality of sets of source and receiver locations, seismic amplitudes from the diving wave illumination image around the region of interest; computing a contribution of a respective diving wave from each source and receiver pair of the plurality of sets of source and receiver locations to diving waves passing through the region of interest based on the seismic amplitudes for each source and receiver pair; and designing an acquisition geometry of a survey design based on the computing of the contribution of the respective diving wave from each source and receiver pair of the plurality of sets of source and receiver locations to the diving waves passing through the region of interest. selecting a plurality of sets of source and receiver locations over a survey area to improve a velocity model of a region of interest, wherein the region of interest corresponds to a problematic region in which use of the velocity model results in poor image quality; performing forward modeling on the velocity model based on each source and receiver pair of the plurality of sets of source and receiver locations to generate low frequency seismic data; performing a reverse time migration on the low frequency seismic data to reposition refraction wave and/or diving wave energy of each source and receiver pair of the plurality of sets of source and receiver locations to generate a diving wave illumination image; extracting, for each source and receiver pair of the plurality of sets of source and receiver locations, seismic amplitudes from the diving wave illumination image around the region of interest; computing a contribution of a respective diving wave from each source and receiver pair of the plurality of sets of source and receiver locations to diving waves passing through the region of interest based on the seismic amplitudes for each source and receiver pair; and designing an acquisition geometry of a survey design based on the computing of the contribution of the respective diving wave from each source and receiver pair of the plurality of sets of source and receiver locations to the diving waves passing through the region of interest.
A steel consisting of in weight % (wt.%): C 0.5 - 2.1 N 1.3 - 3.5 Si 0.05 - 1.2 Mn 0.05 - 1.5 Cr 2.5 - 5.5 Mo 0.8 - 2.2 V 6 - 18 optionally one or more of P ≤ 0.05 S ≤ 0.5 W ≤ 1.0 Cu ≤ 3 Co ≤ 12 Ni ≤ 3 Nb ≤ 2 Ti ≤ 0.1 Zr ≤ 0.1 Ta ≤ 0.1 B ≤ 0.6 Be ≤ 0.2 Bi ≤ 0.2 Se ≤ 0.3 Ca 0.0003 - 0.009 Mg ≤ 0.01 REM ≤ 0.2 balance Fe apart from impurities.
A gas turbine engine component comprising an effusion cooling hole (400, 600, 700, 800), the component including a wall having a cold, first surface opposite a hot, second surface and a thickness defined between the first surface and the second surface, the effusion cooling hole extending along a longitudinal axis that is oblique to the cold, first surface, the effusion cooling hole comprising: an inlet section spaced apart from the first surface, the inlet section including a face orientated transverse to the first surface and defining an inlet through the face that is symmetric along the longitudinal axis, the inlet having a first diameter; an outlet at the second surface and downstream from the inlet section, the outlet configured to form a film of a cooling fluid on the second surface; a diverging section downstream from the inlet section and upstream from the outlet, the diverging section is defined external to the thickness, the effusion cooling hole transitions from the first diameter to a second diameter at the diverging section and the second diameter is larger than the first diameter, wherein the diverging section forms a vena contract that is configured to inhibit the accumulation of fine particles within the effusion cooling hole and wherein the diverging section is cylindrical, with a circular cross-section, and is symmetric to the longitudinal axis; and an intermediate section that fluidly connects the diverging section to the outlet, the intermediate section defined at least through the thickness and having the second diameter. an inlet section spaced apart from the first surface, the inlet section including a face orientated transverse to the first surface and defining an inlet through the face that is symmetric along the longitudinal axis, the inlet having a first diameter; an outlet at the second surface and downstream from the inlet section, the outlet configured to form a film of a cooling fluid on the second surface; a diverging section downstream from the inlet section and upstream from the outlet, the diverging section is defined external to the thickness, the effusion cooling hole transitions from the first diameter to a second diameter at the diverging section and the second diameter is larger than the first diameter, wherein the diverging section forms a vena contract that is configured to inhibit the accumulation of fine particles within the effusion cooling hole and wherein the diverging section is cylindrical, with a circular cross-section, and is symmetric to the longitudinal axis; and an intermediate section that fluidly connects the diverging section to the outlet, the intermediate section defined at least through the thickness and having the second diameter.
A method for producing a board, especially as a floor or wall covering, comprising the following steps: - extruding a board made of a mixture of natural fibres and a polymer material, - planing at least one surface of the board, characterized in that several planes are arranged one after the other in the conveying direction, and at least one plane is moved perpendicularly to the conveying direction during the planing, and at least one plane is moved irregularly transversely to the conveying direction in order to produce an irregular profiled surface structure on the surface, wherein the surface is processed by the plane over the entire surface so that the slightly shining surfaces produced by the extrusion are eliminated by the planing, and grooves and ribs in different widths and in different depths or heights are produced by the movement of the plane transversely to the conveying direction on the surface, and a controller is provided by means of which the at least one plane is moved in an oscillating manner perpendicularly to the conveying direction, wherein the controller drives the plane in an irregularly oscillating manner for producing an irregular surface structure, wherein the at least one plane is formed for producing grooves and the grooves extend partly angularly to the conveying direction. - extruding a board made of a mixture of natural fibres and a polymer material, - planing at least one surface of the board, characterized in that several planes are arranged one after the other in the conveying direction, and at least one plane is moved perpendicularly to the conveying direction during the planing, and at least one plane is moved irregularly transversely to the conveying direction in order to produce an irregular profiled surface structure on the surface, wherein the surface is processed by the plane over the entire surface so that the slightly shining surfaces produced by the extrusion are eliminated by the planing, and grooves and ribs in different widths and in different depths or heights are produced by the movement of the plane transversely to the conveying direction on the surface, and a controller is provided by means of which the at least one plane is moved in an oscillating manner perpendicularly to the conveying direction, wherein the controller drives the plane in an irregularly oscillating manner for producing an irregular surface structure, wherein the at least one plane is formed for producing grooves and the grooves extend partly angularly to the conveying direction.
A texturing machine for the subsequent treatment of a freshly produced concrete layer having a width between left and right edges (14, 16) and extending longitudinally in a working direction, the texturing machine comprising: a machine frame; at least one left side ground engaging unit (28, 30) and at least one right side ground engaging unit (32, 34) for supporting the machine frame from a ground surface; at least one left side height adjustable column supporting (38, 39) the machine frame from the at least one left side ground engaging unit (28, 30); at least one right side height adjustable column supporting (40, 42) the machine frame from the at least one right side ground engaging unit (32, 34); at least one texturing device supported from the machine frame and configured to apply a texture into a not yet hardened surface of the concrete layer, characterised by the texturing device including an adjustable height crown point; at least one crown point actuator (54, 55) configured to adjust the height of the crown point; at least one crown height sensor arranged to detect a height above the freshly produced concrete layer; and a controller configured to receive an input signal from the at least one crown height sensor, the controller configured to generate a crown height control signal in response to the input signal, and to communicate the crown height control signal to the at least one crown actuator (54, 55). a machine frame; at least one left side ground engaging unit (28, 30) and at least one right side ground engaging unit (32, 34) for supporting the machine frame from a ground surface; at least one left side height adjustable column supporting (38, 39) the machine frame from the at least one left side ground engaging unit (28, 30); at least one right side height adjustable column supporting (40, 42) the machine frame from the at least one right side ground engaging unit (32, 34); at least one texturing device supported from the machine frame and configured to apply a texture into a not yet hardened surface of the concrete layer, characterised by the texturing device including an adjustable height crown point; at least one crown point actuator (54, 55) configured to adjust the height of the crown point; at least one crown height sensor arranged to detect a height above the freshly produced concrete layer; and a controller configured to receive an input signal from the at least one crown height sensor, the controller configured to generate a crown height control signal in response to the input signal, and to communicate the crown height control signal to the at least one crown actuator (54, 55).
An integrating sphere for a spectrometer, comprising: a) an integrating spherical body with a light entrance window for allowing light emitted from a sample to enter an inner space of the integrating spherical body; b) a first detector attached to the integrating spherical body on an outside of a first detection window provided at one of two points of intersection of the integrating spherical body and a Z-axis passing through a center of the integrating spherical body in a direction orthogonal to an X-axis passing through the light entrance window and the center, wherein both the X-axis and the Z-axis are orthogonal to a Y-axis passing through the center; c) a second detector attached to the integrating spherical body on an outside of a second detection window provided at another one of the two points of intersection; and d) a third detector attached to the integrating spherical body on an outside of a third detection window provided on the integrating spherical body and on the X-Z-plane in such a manner that an area of the X-Y-plane seen by the third detector coincides with an area of the X-Y-plane seen by the first detector or an area of the X-Y-plane seen by the second detector. a) an integrating spherical body with a light entrance window for allowing light emitted from a sample to enter an inner space of the integrating spherical body; b) a first detector attached to the integrating spherical body on an outside of a first detection window provided at one of two points of intersection of the integrating spherical body and a Z-axis passing through a center of the integrating spherical body in a direction orthogonal to an X-axis passing through the light entrance window and the center, wherein both the X-axis and the Z-axis are orthogonal to a Y-axis passing through the center; c) a second detector attached to the integrating spherical body on an outside of a second detection window provided at another one of the two points of intersection; and d) a third detector attached to the integrating spherical body on an outside of a third detection window provided on the integrating spherical body and on the X-Z-plane in such a manner that an area of the X-Y-plane seen by the third detector coincides with an area of the X-Y-plane seen by the first detector or an area of the X-Y-plane seen by the second detector.
A method for the automated generation and/or manipulation of stem cells, the method comprising: (a) culturing multiple different samples of cells, wherein the cells comprise adult somatic cells or induced pluripotent stem cells, (b) determining the proliferation rate or cell doubling time of individual cell samples from among the multiple different samples of cells, (c) freezing individual cell samples from among the multiple different samples of cells, (d) selecting from the individual cell samples a subset of samples having similar proliferation rates or cell doubling times, (e) thawing the subset of samples selected in step (d), (f) plating the subset of samples in a multi-well plate, (g) culturing the subset of samples until they reach a desired confluency, and (h) where the cells comprise adult somatic cells, contacting the somatic cells with one or more reprogramming factors in order to produce iPSCs, or, where the cells comprise iPSCs, treating the iPSCs in order to produce differentiated cells. (a) culturing multiple different samples of cells, wherein the cells comprise adult somatic cells or induced pluripotent stem cells, (b) determining the proliferation rate or cell doubling time of individual cell samples from among the multiple different samples of cells, (c) freezing individual cell samples from among the multiple different samples of cells, (d) selecting from the individual cell samples a subset of samples having similar proliferation rates or cell doubling times, (e) thawing the subset of samples selected in step (d), (f) plating the subset of samples in a multi-well plate, (g) culturing the subset of samples until they reach a desired confluency, and (h) where the cells comprise adult somatic cells, contacting the somatic cells with one or more reprogramming factors in order to produce iPSCs, or, where the cells comprise iPSCs, treating the iPSCs in order to produce differentiated cells.
A pharmaceutical composition comprising: (a) 10-25 percent by weight of solubilized testosterone undecanoate; (b) 10-37.5 percent by weight of hydrogenated castor oil ethoxylate; (c) 10-65 percent by weight of a hydrophobic surfactant; (d) 2-65 percent by weight of one or more phytosterol esters; and (e) 0-5 percent by weight of dl-alpha-tocopherol, wherein the composition is self-dispersing in an aqueous environment and forms an emulsion, micro-emulsion, or nano-emulsion. (a) 10-25 percent by weight of solubilized testosterone undecanoate; (b) 10-37.5 percent by weight of hydrogenated castor oil ethoxylate; (c) 10-65 percent by weight of a hydrophobic surfactant; (d) 2-65 percent by weight of one or more phytosterol esters; and (e) 0-5 percent by weight of dl-alpha-tocopherol,
Steam iron soleplate device, in particular of a steam iron or a steam iron station, having an iron soleplate with: - steam outlet openings; - a main evaporation chamber assigned to a steam generation system, into which main evaporation chamber evaporation fluid can be introduced at a predetermined first position, and which is connected to the steam outlet openings; and - an additional evaporation chamber assigned to a steam jet system, into which additional evaporation chamber evaporation fluid can be introduced at a predetermined second position, which differs from the first position; - a heating facility for heating the soleplate and/or the main evaporation chamber and/or the additional evaporation chamber; - a temperature sensor for detecting a temperature of the soleplate and/or the heating facility or a temperature sensor fastening section for fastening such a temperature sensor; and - a steam jet conduit of the additional evaporation chamber, which extends at least from the additional evaporation chamber as far as the temperature sensor fastening section, characterised in that the second position is arranged in a front section of the soleplate and the first position is arranged in a front and middle section of the soleplate. - steam outlet openings; - a main evaporation chamber assigned to a steam generation system, into which main evaporation chamber evaporation fluid can be introduced at a predetermined first position, and which is connected to the steam outlet openings; and - an additional evaporation chamber assigned to a steam jet system, into which additional evaporation chamber evaporation fluid can be introduced at a predetermined second position, which differs from the first position; - a heating facility for heating the soleplate and/or the main evaporation chamber and/or the additional evaporation chamber; - a temperature sensor for detecting a temperature of the soleplate and/or the heating facility or a temperature sensor fastening section for fastening such a temperature sensor; and - a steam jet conduit of the additional evaporation chamber, which extends at least from the additional evaporation chamber as far as the temperature sensor fastening section,
Bearing component having a surface region to which are applied, one on top of another, a base layer of a first surface coating composition which is based on polyurethane and to which zinc has been added, an intermediate layer, different from the base layer, of a second surface coating which is based on polyurethane and to which fibres have been added, and a covering layer, different from the intermediate layer, of a third surface coating which is based on polyurethane.
A manufacturing method of a rotor (100, 300) including a rotor core, a plate (30, 430, 530) that is disposed on at least one side of the rotor core in a rotational axis direction, and a rotation transmitting member that is composed of a martensitic material and that is welded and fixed to the plate (30, 430, 530), the manufacturing method comprising: a step of preparing the plate (30, 430, 530) that has a projected portion (70, 370, 470, 570) that is provided adjacent to the rotation transmitting member in a radial direction and that is projected, from an end face in the rotational axis direction (32a, 432a), in a direction away from the rotor core out of the rotational axis direction, and a part that is adjacent to the projected portion (70, 370, 470, 570) in the radial direction and that has a width in the rotational axis direction smaller than a width of the projected portion (70, 370, 470, 570) in the rotational axis direction, the plate (30, 430, 530) being formed of an austenitic material; a step of disposing the rotation transmitting member radially inward of the plate (30, 430, 530), after the step of preparing the plate (30, 430, 530); and a step of forming a welded portion (50, 350) across the projected portion (70, 370, 470, 570) of the plate (30, 430, 530) and the rotation transmitting member by emitting an energy beam on at least a part of the projected portion (70, 370, 470, 570) to melt at least a part of the projected portion (70, 370, 470, 570), after the step of disposing the rotation transmitting member. a step of preparing the plate (30, 430, 530) that has a projected portion (70, 370, 470, 570) that is provided adjacent to the rotation transmitting member in a radial direction and that is projected, from an end face in the rotational axis direction (32a, 432a), in a direction away from the rotor core out of the rotational axis direction, and a part that is adjacent to the projected portion (70, 370, 470, 570) in the radial direction and that has a width in the rotational axis direction smaller than a width of the projected portion (70, 370, 470, 570) in the rotational axis direction, the plate (30, 430, 530) being formed of an austenitic material; a step of disposing the rotation transmitting member radially inward of the plate (30, 430, 530), after the step of preparing the plate (30, 430, 530); and a step of forming a welded portion (50, 350) across the projected portion (70, 370, 470, 570) of the plate (30, 430, 530) and the rotation transmitting member by emitting an energy beam on at least a part of the projected portion (70, 370, 470, 570) to melt at least a part of the projected portion (70, 370, 470, 570), after the step of disposing the rotation transmitting member.