mhurhangee/ep-ind-claims huggingface dataset:
Procedure designed for the fabrication of a pressure sensor, comprising the following steps: The provision of a ceramic meter body, a ceramic measuring diaphragm and an intermediate ring; The provision of an active hard solder material characterized in that the provision of the active hard solder material is achieved by means of vapor deposition at least on a first surface section of a first surface and on a second surface section of a second surface, wherein the first surface is a surface of the meter body, which is to be connected to the intermediate ring by means of the active hard solder, or a surface of the intermediate ring, which is to be connected to the meter body by means of the active hard solder; wherein the second surface is a surface of the measuring diaphragm, which is to be connected to the intermediate ring by means of the active hard solder, or a surface of the intermediate ring, which is to be connected to the measuring diaphragm by means of the active hard solder; Placement of the intermediate ring between the measuring diaphragm and the meter body; and Heating of the active hard solder in a soldering process, wherein the intermediate ring remains a solid body during the soldering process. The provision of a ceramic meter body, a ceramic measuring diaphragm and an intermediate ring; The provision of an active hard solder material characterized in that the provision of the active hard solder material is achieved by means of vapor deposition at least on a first surface section of a first surface and on a second surface section of a second surface, wherein the first surface is a surface of the meter body, which is to be connected to the intermediate ring by means of the active hard solder, or a surface of the intermediate ring, which is to be connected to the meter body by means of the active hard solder; wherein the second surface is a surface of the measuring diaphragm, which is to be connected to the intermediate ring by means of the active hard solder, or a surface of the intermediate ring, which is to be connected to the measuring diaphragm by means of the active hard solder; Placement of the intermediate ring between the measuring diaphragm and the meter body; and Heating of the active hard solder in a soldering process, wherein the intermediate ring remains a solid body during the soldering process.
Paving block made of concrete (12; 13) for laying in bond in a predefined grid dimension, consisting of a paving block body having a substantially cuboid lower paving block portion and an adjoining upper paving block portion, wherein the lower paving block portion forms the block underside, and the upper paving block portion forms the block top side, wherein the block top side runs parallel to the block underside, wherein the block underside comprises a lower contour formed by lower side edges, and the block top side comprises an upper contour formed by four upper side edges, wherein at least one of the upper side edges of the upper contour runs relative to the adjacent lower side edge of the lower contour such that an upper side edge of the upper contour, when projected into a plane containing the block underside, encloses an acute angle (α) with the adjacent lower side edge of the lower contour, characterised in that the lower contour is formed by four lower side edges, wherein the lower contour is substantially rectangular or square and fits into the predefined grid dimension, in that the upper contour is designed such that, when the upper contour is projected into a plane containing the block underside, the upper contour is completely accommodated in the lower contour, in that at least one further of the upper side edges of the upper contour runs relative to the adjacent lower side edge of the lower contour such that the projected upper side edge of the upper contour is congruent with the adjacent lower side edge of the lower contour, or that the projected upper side edge of the upper contour runs parallel but shifted relative to the adjacent lower side edge of the lower contour.
A catheter connector system adapted to releasable connect a supply port of an intravenous line to a patient connector of an intravenous catheter, comprising: a connector having: (a) an inner wall defining an interior of the catheter connector, said inner wall being transmissive to ultraviolet light; and (b) an outer wall defining an exterior of the catheter connector; one or a plurality of UV light sources (12, 12A, 112) disposed between the inner wall and the outer wall or on the outer wall and positioned to emit UV light into the interior of the catheter connector; a flow sensor for sensing a flow of fluid in the interior of the catheter connector; and circuitry for electrically connecting the UV light sources (12, 12A, 112), the flow sensor and a power source, such that electrical power is supplied to the UV light sources (12, 12A, 112) when fluid flow is sensed through the interior of the catheter connector, characterized in that the supply port and the patient connector are both at least partially transmissive to UV light. a connector having: (a) an inner wall defining an interior of the catheter connector, said inner wall being transmissive to ultraviolet light; and (b) an outer wall defining an exterior of the catheter connector; (a) an inner wall defining an interior of the catheter connector, said inner wall being transmissive to ultraviolet light; and (b) an outer wall defining an exterior of the catheter connector; one or a plurality of UV light sources (12, 12A, 112) disposed between the inner wall and the outer wall or on the outer wall and positioned to emit UV light into the interior of the catheter connector; a flow sensor for sensing a flow of fluid in the interior of the catheter connector; and circuitry for electrically connecting the UV light sources (12, 12A, 112), the flow sensor and a power source, such that electrical power is supplied to the UV light sources (12, 12A, 112) when fluid flow is sensed through the interior of the catheter connector, characterized in that the supply port and the patient connector are both at least partially transmissive to UV light.
A pharmaceutical composition comprising a compound of formula I or a pharmaceutically acceptable salt thereof, for use in treating an ocular inflammatory condition through topical administration to the eye of a human, wherein an individual dose of the compound of formula I or a pharmaceutically acceptable salt thereof in the range of from 0.01 mg to 5 mg is administered in each affected eye.
A method of mounting a workpiece to be polished to a substrate using a number of pitch buttons, the method comprising: determining a peak-to-valley height value, PV, of the workpiece; determining a value, C, related to pitch area as a function of pitch thickness, t p, according to the formula: C = Δ α ⋅ Δ T ⋅ t p where Δα is a change in thermal expansion coefficient between a pitch button and the workpiece material, and ΔT is a temperature decrease from T g, where T g represents a temperature at which the pitch buttons begin to undergo stress relaxation, and room temperature; computing a relative area of pitch, A r, equal to the peak-to-valley height value, PV, divided by the value, C, related to pitch area; computing a button radius, r p, using A r = πr p 2 s 2, where s is a center to center separation between pitch buttons; computing the number, N, of pitch buttons per workpiece equal to the relative area of pitch, A r, divided by the ratio squared of the pitch button radius, r p, to the workpiece radius, r w; coupling the computed number, N, of pitch buttons to the workpiece, wherein a spacing, d m, between the N pitch buttons is substantially uniform; and coupling the N pitch buttons to the substrate. determining a peak-to-valley height value, PV, of the workpiece; determining a value, C, related to pitch area as a function of pitch thickness, t p, according to the formula: C = Δ α ⋅ Δ T ⋅ t p where Δα is a change in thermal expansion coefficient between a pitch button and the workpiece material, and ΔT is a temperature decrease from T g, where T g represents a temperature at which the pitch buttons begin to undergo stress relaxation, and room temperature; computing a relative area of pitch, A r, equal to the peak-to-valley height value, PV, divided by the value, C, related to pitch area; computing a button radius, r p, using A r = πr p 2 s 2, where s is a center to center separation between pitch buttons; computing the number, N, of pitch buttons per workpiece equal to the relative area of pitch, A r, divided by the ratio squared of the pitch button radius, r p, to the workpiece radius, r w; coupling the computed number, N, of pitch buttons to the workpiece, wherein a spacing, d m, between the N pitch buttons is substantially uniform; and coupling the N pitch buttons to the substrate.
A method for a protective finish for an airfoil, the method comprising: applying a sheath to a surface of the airfoil by wrapping the sheath around the surface of the airfoil from a leading edge of the airfoil towards a trailing edge of the airfoil, characterized in that the sheath covers 50 percent to 70 percent of a chord length of the airfoil, and wherein a back edge of the sheath is positioned downstream from a point where airflow over the airfoil in a direction from the leading edge towards the trailing edge separates to prevent disruption of laminar airflow over the airfoil. applying a sheath to a surface of the airfoil by wrapping the sheath around the surface of the airfoil from a leading edge of the airfoil towards a trailing edge of the airfoil, characterized in that the sheath covers 50 percent to 70 percent of a chord length of the airfoil, and wherein a back edge of the sheath is positioned downstream from a point where airflow over the airfoil in a direction from the leading edge towards the trailing edge separates to prevent disruption of laminar airflow over the airfoil.
A drive device comprising: two fluid motors (8A, 8B) serving as drive sources for generating rotational forces; and a channel member having a supply channel for supplying a pressure fluid to the two fluid motors (8A, 8B), wherein each of the two fluid motors (8A, 8B) includes: a casing having a supply port and a discharge port for the pressure fluid; a drive shaft (76a, 76b) rotatably supported to the casing; and a motive power generating unit provided in the casing and configured to rotate the drive shaft (76a, 76b) with the pressure fluid, the pressure fluid being supplied to the motive power generating unit through the supply port and discharged from the motive power generating unit through the discharge port, wherein the two fluid motors (8A, 8B) are arranged such that the respective drive shafts (76a, 76b) are disposed parallel to each other and oriented toward opposite sides along rotation axes of the drive shafts (76a, 76b), wherein the supply channel supplies the pressure fluid to the supply ports of the two fluid motors (8A, 8B), and wherein the channel member includes two separated supply channels into which the supply channel on a common supply source side is separated. two fluid motors (8A, 8B) serving as drive sources for generating rotational forces; and a channel member having a supply channel for supplying a pressure fluid to the two fluid motors (8A, 8B), wherein each of the two fluid motors (8A, 8B) includes: a casing having a supply port and a discharge port for the pressure fluid; a drive shaft (76a, 76b) rotatably supported to the casing; and a motive power generating unit provided in the casing and configured to rotate the drive shaft (76a, 76b) with the pressure fluid, the pressure fluid being supplied to the motive power generating unit through the supply port and discharged from the motive power generating unit through the discharge port, a casing having a supply port and a discharge port for the pressure fluid; a drive shaft (76a, 76b) rotatably supported to the casing; and a motive power generating unit provided in the casing and configured to rotate the drive shaft (76a, 76b) with the pressure fluid, the pressure fluid being supplied to the motive power generating unit through the supply port and discharged from the motive power generating unit through the discharge port, wherein the two fluid motors (8A, 8B) are arranged such that the respective drive shafts (76a, 76b) are disposed parallel to each other and oriented toward opposite sides along rotation axes of the drive shafts (76a, 76b), wherein the supply channel supplies the pressure fluid to the supply ports of the two fluid motors (8A, 8B), and wherein the channel member includes two separated supply channels into which the supply channel on a common supply source side is separated.
A cleaning device comprising an air flow generator for generating an air flow, which can generate a first suction flow (S 1) in a first suction line, which is arranged in flow direction of the air flow upstream of the air flow generator and which leads into a first collecting container, and a pressure flow in a pressure line, which is arranged in flow direction of the air flow downstream from the air flow generator, characterized in that provision is made for means, by means of which the air flow can generate a second suction flow (S 2), which is separated from the first suction flow (S 1), through a second suction line, which leads into a second collecting container.
A lubricating oil composition, comprising at least one hydrocarbon compound represented by the general formulae (a) to (f) wherein k, m and n are each an integer of 0 to 6 with the proviso, that k+m is an integer of 0 to 6, and R 1 and R 2 each represent an alkyl group having 1 to 4 carbon atoms or a cycloalkyl group having 5 to 12 carbon atoms, and a synthetic traction base oil represented by the general formula (h) wherein q is an integer of 1 or 2 and r is an integer of 2 to 3; wherein the composition has a viscosity at -40°C of 40 Pa·s or lower and a viscosity index of 80 or higher.
Apparatus for exercising a person's balance control, the apparatus comprising: a motion stage operable to displace an object mounted thereto; a treadmill mounted to the stage and comprising a belt having a runway surface on which a person using the treadmill stands, walks and/or runs; characterized by at least one sensor (200, 202) adapted to generate signals useable to determine a measure of proficiency of the person's balance control; and a controller (70, 170) adapted to receive the signals and to process them to provide a measure of proficiency of the person's balance control and to control the motion stage to provide a displacement of the treadmill and thereby the treadmill runway surface responsive to the measure. a motion stage operable to displace an object mounted thereto; a treadmill mounted to the stage and comprising a belt having a runway surface on which a person using the treadmill stands, walks and/or runs; characterized by at least one sensor (200, 202) adapted to generate signals useable to determine a measure of proficiency of the person's balance control; and a controller (70, 170) adapted to receive the signals and to process them to provide a measure of proficiency of the person's balance control and to control the motion stage to provide a displacement of the treadmill and thereby the treadmill runway surface responsive to the measure.
A top board structure comprising a working surface in office furniture, comprising: a rectangular base made of sheet metal, and comprising the working surface on an upper surface and a downward portion extending downward from a periphery of the base; a reinforcing frame fixed on a lower surface of the base and comprising a pair of longitudinal reinforcements extending in a right and left direction of the top board structure and a pair of lateral reinforcements extending in a forward and rearward direction of the top board structure, a gap (a) being formed between an inner side of the downward portion of the base and an outer side of the reinforcing frame; and a bottom cover comprising a cover base and an upward portion extending upward from a periphery of the cover base, the bottom cover having an upper opening, the bottom cover being fixed to the reinforcing frame while the upward portion of the bottom cover is disposed in the gap (a). a rectangular base made of sheet metal, and comprising the working surface on an upper surface and a downward portion extending downward from a periphery of the base; a reinforcing frame fixed on a lower surface of the base and comprising a pair of longitudinal reinforcements extending in a right and left direction of the top board structure and a pair of lateral reinforcements extending in a forward and rearward direction of the top board structure, a gap (a) being formed between an inner side of the downward portion of the base and an outer side of the reinforcing frame; and a bottom cover comprising a cover base and an upward portion extending upward from a periphery of the cover base, the bottom cover having an upper opening, the bottom cover being fixed to the reinforcing frame while the upward portion of the bottom cover is disposed in the gap (a).
Tool holding fixture for a tool drive for polishing optical workpieces, in particular eyeglass lenses, by means of a rotatable tool, characterized in that the tool holding fixture is embodied for magnetic coupling with and/or magnetic holding on an axially adjustable positioning element of the tool drive.
A roll angle estimation device for estimating a roll angle of a moving body (1; 100), comprising: first and second angular velocity detectors (51, 52) for detecting respective first and second angular velocities (ω r, ω y) around first and second axes extending along at least two mutually different directions; first, second, and third acceleration detectors (53, 54, 55) for detecting respective first, second, and third accelerations along at least three mutually different directions; a velocity information detector (6; 7) for detecting information concerning a moving velocity (V r, V f) of the moving body (1; 100) in a direction of travel; and an estimation section configured to estimate a roll angle, a pitch angle and a pitch angular velocity of the moving body (1; 100) and at least one offset error of the first and second angular velocity detectors (51, 52) and the first, second, and third acceleration detectors, wherein, in a current estimation operation, the estimation section estimates the roll angle, pitch angle, and pitch angular velocity of the moving body (1; 100) and the at least one offset error, based on: detection values detected by the first and second angular velocity detectors (51, 52); detection values detected by the first, second, and third acceleration detectors; a detection value detected by the velocity information detector (6; 7); estimated values of the roll angle, pitch angle, and pitch angular velocity from a previous estimation operation; and an estimated value of the offset error from the previous estimation operation. first and second angular velocity detectors (51, 52) for detecting respective first and second angular velocities (ω r, ω y) around first and second axes extending along at least two mutually different directions; first, second, and third acceleration detectors (53, 54, 55) for detecting respective first, second, and third accelerations along at least three mutually different directions; a velocity information detector (6; 7) for detecting information concerning a moving velocity (V r, V f) of the moving body (1; 100) in a direction of travel; and an estimation section configured to estimate a roll angle, a pitch angle and a pitch angular velocity of the moving body (1; 100) and at least one offset error of the first and second angular velocity detectors (51, 52) and the first, second, and third acceleration detectors, wherein, in a current estimation operation, the estimation section estimates the roll angle, pitch angle, and pitch angular velocity of the moving body (1; 100) and the at least one offset error, based on: detection values detected by the first and second angular velocity detectors (51, 52); detection values detected by the first, second, and third acceleration detectors; a detection value detected by the velocity information detector (6; 7); estimated values of the roll angle, pitch angle, and pitch angular velocity from a previous estimation operation; and an estimated value of the offset error from the previous estimation operation.
A fuse operation indicator assembly (40, 40', 40"), comprising: an elongate tube having first and second ends; a fuse striker receiving member at the first end of the tube and configured to receive a fuse striker pin, and an electric switch (70, 70', 70 1, 70 2, 70 N) comprising a switch actuator spaced apart from the second end of the tube, characterised in that the fuse striker receiving member comprises a spring-loaded piston that is configured to generate a puff of air through the tube when the fuse striker receiving member receives the fuse striker pin; and wherein the switch actuator is configured to be actuated by the puff of air generated by the spring-loaded piston. an elongate tube having first and second ends; a fuse striker receiving member at the first end of the tube and configured to receive a fuse striker pin, and an electric switch (70, 70', 70 1, 70 2, 70 N) comprising a switch actuator spaced apart from the second end of the tube, characterised in that the fuse striker receiving member comprises a spring-loaded piston that is configured to generate a puff of air through the tube when the fuse striker receiving member receives the fuse striker pin; and wherein the switch actuator is configured to be actuated by the puff of air generated by the spring-loaded piston.
An upper-body apparel system comprising: an inner article in the form of a shirt, the inner article having an inner-facing surface and an outer-facing surface, the inner article comprising a first set of foam ink nodes located on the outer-facing surface of the inner article; and an outer article in the form of a shirt and configured to be worn over the inner article, the outer article having an inner-facing surface and an outer-facing surface, the outer article comprising a second set of foam ink nodes located on the inner-facing surface of the outer article. an inner article in the form of a shirt, the inner article having an inner-facing surface and an outer-facing surface, the inner article comprising a first set of foam ink nodes located on the outer-facing surface of the inner article; and an outer article in the form of a shirt and configured to be worn over the inner article, the outer article having an inner-facing surface and an outer-facing surface, the outer article comprising a second set of foam ink nodes located on the inner-facing surface of the outer article.
Heat transfer element with at least one flexible element on which at least one distributor and at least one collector is arranged, wherein the flexible element comprises at least one longitudinal side, at least one width, at least two flow channels, at least two end faces (20, 21) and a closed connection element which connects the flow channels to each other, wherein one of the end faces is arranged opposite the other end face, wherein the at least one collector and the at least one distributor are arranged on one of the end faces and the connection element is arranged on the opposite end face, wherein the flexible element is wound up, wherein the at least one distributor is offset in the direction of the width of the flexible element of the heat transfer element with regard to the at least one collector, wherein the at least one distributor and the at least one collector are arranged at least partially axially in each other.