mhurhangee/ep-ind-claims huggingface dataset:
A compound of the formula or a pharmacologically acceptable salt: wherein each substituent is as defined below R 1: cyano group, Cl-6 alkylcarbonyl group, Cl-6 alkylcarbonylamino group, halogeno Cl-6 alkyl group, C2-6 alkenyl group, halogeno C2-6 alkenyl group, carbamoyl group, or hydroxy Cl-6 alkyl group R 2: Cl-6 alkoxy group, carbamoyl group, Cl-6 alkylaminocarbonyl group, or Cl-6 alkylcarbonyl group R 3: hydrogen atom, or halogen atom S, T and U: when any one of S, T and U is =N-, others are =CH- (=C- when R 3 is substituted); or all of S, T and U are =CH- (=C- when R 3 is substituted) W: -NH-, -O-, or -S- X: -saturated heterocycle-, or -O-(CH 2) n -, and n is 2 Y: single bond, or -O- Z: hydrogen atom, saturated heterocyclic group optionally substituted by any group selected from substituent group α, or Cl-6 alkyl group optionally substituted by any group selected from substituent group α substituent group α: saturated heterocyclic group, hydroxy Cl-6 alkyl group, aminosulfonylamino group, carboxy group, hydroxy group, Cl-6 alkoxy group, Cl-6 alkyl group. R 1: cyano group, Cl-6 alkylcarbonyl group, Cl-6 alkylcarbonylamino group, halogeno Cl-6 alkyl group, C2-6 alkenyl group, halogeno C2-6 alkenyl group, carbamoyl group, or hydroxy Cl-6 alkyl group R 2: Cl-6 alkoxy group, carbamoyl group, Cl-6 alkylaminocarbonyl group, or Cl-6 alkylcarbonyl group R 3: hydrogen atom, or halogen atom S, T and U: when any one of S, T and U is =N-, others are =CH- (=C- when R 3 is substituted); or all of S, T and U are =CH- (=C- when R 3 is substituted) W: -NH-, -O-, or -S- X: -saturated heterocycle-, or -O-(CH 2) n -, and n is 2 Y: single bond, or -O- Z: hydrogen atom, saturated heterocyclic group optionally substituted by any group selected from substituent group α, or Cl-6 alkyl group optionally substituted by any group selected from substituent group α substituent group α: saturated heterocyclic group, hydroxy Cl-6 alkyl group, aminosulfonylamino group, carboxy group, hydroxy group, Cl-6 alkoxy group, Cl-6 alkyl group.
Method for determining an effective quantity of an adhesion-promoting medium which is applied between a wheel of a rail vehicle and a rail on which the wheel is travelling, which method comprises: - determining an actual friction effect between the wheel and the rail produced by the effective quantity; - determining a basic friction effect between the wheel and the rail, which is obtained without the effective quantity; and - determining the effective quantity on the basis of a comparison of the actual friction effect and the basic friction effect. - determining an actual friction effect between the wheel and the rail produced by the effective quantity; - determining a basic friction effect between the wheel and the rail, which is obtained without the effective quantity; and - determining the effective quantity on the basis of a comparison of the actual friction effect and the basic friction effect.
A device for separating a fluid component from a fluid, in particular compressed air of a vehicle, the device comprising: a first container comprising one or more filters to separate from the fluid at least a part of one or more components contained in the fluid; a second container comprising a heating device (21, 39, 65) configured to increase the temperature of the fluid in the second container to enhance evaporation of one or more components from the fluid and to separate from the fluid in the second container by evaporation at least a part of one or more components, wherein the second container comprises one or more openings through which a liquid or solid substance can be supplied to the fluid in the second container for breaking an emulsion or mixture of two or more components contained in the fluid, and an outlet through which the at least part of the one or more separated and evaporated components can be exhausted; the first and the second container (2, 3) being interconnected by a throttle device adapted to throttle a transfer of at least a part of the fluid from the first container into the second container, wherein the throttle device is adapted for actuation in dependence of a supply of a fluid, such as compressed air containing fluid components, to the first container, so that it is opened to supply fluid from the first container to the second container. a first container comprising one or more filters to separate from the fluid at least a part of one or more components contained in the fluid; a second container comprising a heating device (21, 39, 65) configured to increase the temperature of the fluid in the second container to enhance evaporation of one or more components from the fluid and to separate from the fluid in the second container by evaporation at least a part of one or more components, wherein the second container comprises one or more openings through which a liquid or solid substance can be supplied to the fluid in the second container for breaking an emulsion or mixture of two or more components contained in the fluid, and an outlet through which the at least part of the one or more separated and evaporated components can be exhausted; the first and the second container (2, 3) being interconnected by a throttle device adapted to throttle a transfer of at least a part of the fluid from the first container into the second container, wherein the throttle device is adapted for actuation in dependence of a supply of a fluid, such as compressed air containing fluid components, to the first container, so that it is opened to supply fluid from the first container to the second container.
A surgical device, comprising: - a member (12,14) comprising a first channel (26,27) and a second channel (32,33), said second channel (32,33) formed adjacent said first channel (26,27); - an aperture arranged at a proximal end of the member, the aperture is arranged to communicate with said first channel (26,27), said aperture is sized to accommodate a cabled imaging component therethrough, and said cabled imaging component is translatable through said aperture into said first channel (26,27) for communicating images of areas surrounding said surgical device, and characterized in that there is a viewing aperture through a channel wall of said member (12, 14) for viewing said areas surrounding said surgical device by said cabled imaging component. - a member (12,14) comprising a first channel (26,27) and a second channel (32,33), said second channel (32,33) formed adjacent said first channel (26,27); - an aperture arranged at a proximal end of the member, the aperture is arranged to communicate with said first channel (26,27), said aperture is sized to accommodate a cabled imaging component therethrough, and said cabled imaging component is translatable through said aperture into said first channel (26,27) for communicating images of areas surrounding said surgical device, and
An optoelectronic sensor, in particular a laser scanner, for detecting objects in a monitored area, having a light transmitter for transmitting transmitted light, a movable deflection unit for periodically deflecting the transmitted light, and a light receiver for receiving the remitted transmitted light remitted by objects in the monitored area, the transmitted light forming a plurality of scanning beams (26, 28) separated from one another and/or the light receiver receiving the remitted transmitted light as a plurality of scanning beams (26, 28) separated from one another, wherein separated scanning beams are to be understood as light beams separated from one another, and having a control and evaluation unit which is configured to carry out individual measurements with a respective scanning beam (26, 28) and to combine a plurality of individual measurements to form a common measured value for the distance to the object, the deflection unit moving on between the individual measurements contributing to a common measured value, characterized in that the control and evaluation unit is further configured for combining individual measurements of at least two different scanning beams (26, 28) into a common measured value.
A fluidic module for use in a turbidity measuring device, the fluidic module configured to minimize and/or remove entrained gasses in a liquid sample prior to analysis of the liquid sample by a measurement module, wherein the fluidic module comprises: a fluid passage including an inlet, a first passage, a second passage, a first chamber, a second chamber, one or more rounded helical surfaces, and a plurality of opposing semi-conical depressions and semi-cylindrical depressions, wherein: the first passage is configured for taking a liquid from the inlet past the one or more rounded helical surfaces to the first chamber; and the second passage is configured for taking the liquid from the first chamber past the plurality of opposing semi-conical depressions and semi-cylindrical depressions to the second chamber, wherein, a base edge of each semi-conical depression is located proximate the first flow passage, and each of the rounded helical surfaces is cut into the base edge of one of the plurality of semi-conical depressions, wherein in use, the rounded helical surfaces act to divert a portion of the liquid flowing within the first passage and impinging on the rounded helical surfaces along the semi-conical depressions and semi-cylindrical depressions, creating a backwash to dislodge bubbles accumulated in the depressions (152, 160) into the flow of liquid within the first passage to be carried to the first chamber. the first passage is configured for taking a liquid from the inlet past the one or more rounded helical surfaces to the first chamber; and the second passage is configured for taking the liquid from the first chamber past the plurality of opposing semi-conical depressions and semi-cylindrical depressions to the second chamber, wherein, a base edge of each semi-conical depression is located proximate the first flow passage, and each of the rounded helical surfaces is cut into the base edge of one of the plurality of semi-conical depressions, wherein in use, the rounded helical surfaces act to divert a portion of the liquid flowing within the first passage and impinging on the rounded helical surfaces along the semi-conical depressions and semi-cylindrical depressions, creating a backwash to dislodge bubbles accumulated in the depressions (152, 160) into the flow of liquid within the first passage to be carried to the first chamber.
A non-transitory storage medium storing instructions executable by an electronic data processing device to perform a method including: computing image texture feature values for a set of image texture features from an image of an anatomical feature of interest in a subject, wherein the computing of the image texture feature values comprises: computing one or more gray level co-occurrence matrices "GLCM" for the image of the anatomical feature of interest in the subject, said computing one or more GLCMs includes computing one or more symmetrized and normalized GLCMs for the image of the anatomical feature of interest in the subject; and computing the image texture feature values based on the one or more GLCMs; and classifying the subject respective to a molecular feature of interest based on the image texture feature values computed for the set of image texture features, wherein the anatomical feature of interest is a breast lesion and the molecular feature of interest is an estrogen receptor "ER" marker, a progesterone receptor "PR" marker, a Human Epidermal Growth Factor Receptor 2 "Her2" marker or a deregulation of the TGFbeta pathway. computing image texture feature values for a set of image texture features from an image of an anatomical feature of interest in a subject, wherein the computing of the image texture feature values comprises: computing one or more gray level co-occurrence matrices "GLCM" for the image of the anatomical feature of interest in the subject, said computing one or more GLCMs includes computing one or more symmetrized and normalized GLCMs for the image of the anatomical feature of interest in the subject; and computing the image texture feature values based on the one or more GLCMs; and computing one or more gray level co-occurrence matrices "GLCM" for the image of the anatomical feature of interest in the subject, said computing one or more GLCMs includes computing one or more symmetrized and normalized GLCMs for the image of the anatomical feature of interest in the subject; and computing the image texture feature values based on the one or more GLCMs; and classifying the subject respective to a molecular feature of interest based on the image texture feature values computed for the set of image texture features, wherein the anatomical feature of interest is a breast lesion and the molecular feature of interest is an estrogen receptor "ER" marker, a progesterone receptor "PR" marker, a Human Epidermal Growth Factor Receptor 2 "Her2" marker or a deregulation of the TGFbeta pathway.
A method of operating a base station in a wireless communication system, the method comprising: transmitting a synchronization signal and a broadcast signal in a first time period within a subframe, via a first transmit beam; and transmitting the synchronization signal and the broadcast signal in a second time period within the subframe, via a second transmit beam, wherein the first transmit beam is transmitted to a different direction with the second transmit beam, wherein the synchronization signal and the broadcast signal occupy a part of an operation bandwidth, wherein the synchronization signal comprises a primary synchronization signal and a secondary synchronization signal that are mapped to different symbols, and wherein the broadcast signal transmitted via the first transmit beam comprises information for identifying the first time period. transmitting a synchronization signal and a broadcast signal in a first time period within a subframe, via a first transmit beam; and transmitting the synchronization signal and the broadcast signal in a second time period within the subframe, via a second transmit beam, wherein the first transmit beam is transmitted to a different direction with the second transmit beam, wherein the synchronization signal and the broadcast signal occupy a part of an operation bandwidth, wherein the synchronization signal comprises a primary synchronization signal and a secondary synchronization signal that are mapped to different symbols, and wherein the broadcast signal transmitted via the first transmit beam comprises information for identifying the first time period.
A method of etching successive polyimide coated substrates on a platen in an inductively coupled plasma chamber in which the etching process results in carbonaceous deposits in the chamber, the method including: (a) interrupting the etching processing of polyimide coated substrates; (b) running an oxygen or oxygen containing plasma within the chamber and removing gaseous by-products; and (c) resuming the etch processing of polyimide coated substrates characterised in that the method further includes the step of: (d) running an argon plasma in the chamber after step (b) with the platen biased. (a) interrupting the etching processing of polyimide coated substrates; (b) running an oxygen or oxygen containing plasma within the chamber and removing gaseous by-products; and (c) resuming the etch processing of polyimide coated substrates
An image inspection device which uses photographic images to inspect a target, comprising: a photographing portion that photographs the target; and a light transmissible lighting portion (20, 120, 220, 320) that is disposed between the target and the photographing portion and configured to irradiate light in a direction toward the target; wherein the lighting portion (20, 120, 220, 320) comprises: a plurality of lighting elements that is arranged in a matrix form and configured to be capable of selectively emitting light; and an optical system (40, 140, 240, 340) configured to control irradiation directions of the light emitted from each of the plurality lighting elements to be directions corresponding to positions of each of the plurality of lighting elements, the image inspection device being characterized in that each of the lighting elements includes a light-emitting region and a transparent region, and each of the lighting elements is light transmissible by having the transparent region. a photographing portion that photographs the target; and a light transmissible lighting portion (20, 120, 220, 320) that is disposed between the target and the photographing portion and configured to irradiate light in a direction toward the target; wherein the lighting portion (20, 120, 220, 320) comprises: a plurality of lighting elements that is arranged in a matrix form and configured to be capable of selectively emitting light; and an optical system (40, 140, 240, 340) configured to control irradiation directions of the light emitted from each of the plurality lighting elements to be directions corresponding to positions of each of the plurality of lighting elements, the image inspection device being characterized in that each of the lighting elements includes a light-emitting region and a transparent region, and each of the lighting elements is light transmissible by having the transparent region. a plurality of lighting elements that is arranged in a matrix form and configured to be capable of selectively emitting light; and an optical system (40, 140, 240, 340) configured to control irradiation directions of the light emitted from each of the plurality lighting elements to be directions corresponding to positions of each of the plurality of lighting elements, the image inspection device being characterized in that each of the lighting elements includes a light-emitting region and a transparent region, and each of the lighting elements is light transmissible by having the transparent region.
A method for producing a surface-modified glass sheet, comprising a gas contact step of bringing hydrogen fluoride gas, hydrogen chloride (HCl) gas, and water vapor into contact with at least one principal surface of a glass sheet that contains Si-O bonds, wherein a gas containing the hydrogen fluoride gas is used in the gas contact step, and in the gas containing the hydrogen fluoride gas, a volume ratio of the water vapor to the hydrogen fluoride gas (volume of water vapor / volume of HF gas) is 8 or more, wherein the gas contact step comprises: a hydrogen fluoride gas contact step; and a hydrogen chloride (HCl) gas contact step, in the hydrogen fluoride gas contact step, a first gas is brought into contact with the at least one principal surface of the glass sheet, the first gas containing hydrogen fluoride gas and water vapor but containing no acid gas other than hydrogen fluoride gas, wherein the concentration of HF gas contained in the first gas is 0.5 to 6 vol% and the volume ratio of water vapor to HF gas is 199 or less, and in the hydrogen chloride (HCl) gas contact step, a second gas is brought into contact with the at least one principal surface of the glass sheet, the second gas containing hydrogen chloride (HCl) gas but containing no acid gas other than hydrogen chloride (HCl) gas, wherein the concentration of the HCl gas contained in the second gas is 0.1 to 15 vol%. the gas contact step comprises: a hydrogen fluoride gas contact step; and a hydrogen chloride (HCl) gas contact step, in the hydrogen fluoride gas contact step, a first gas is brought into contact with the at least one principal surface of the glass sheet, the first gas containing hydrogen fluoride gas and water vapor but containing no acid gas other than hydrogen fluoride gas, wherein the concentration of HF gas contained in the first gas is 0.5 to 6 vol% and the volume ratio of water vapor to HF gas is 199 or less, and in the hydrogen chloride (HCl) gas contact step, a second gas is brought into contact with the at least one principal surface of the glass sheet, the second gas containing hydrogen chloride (HCl) gas but containing no acid gas other than hydrogen chloride (HCl) gas, wherein the concentration of the HCl gas contained in the second gas is 0.1 to 15 vol%.
Device for preventing access to an area of an aircraft, having a first vertical frame post and a second vertical frame post (9, 9A) for attachment to a structure of the aircraft, and having a barrier element which is displaceably connected to the first frame post and can be detachably connected to the second frame post (9, 9A) via at least one latching element in order to prevent access to the area to be protected, wherein a delay unit is designed to release the latching element after a time delay, characterised in that the delay unit has a spring-loaded damping cylinder which is displaceable into a damping position by a latching movement in opposition to a spring force.
A spark plug comprising: a center electrode extending in an axial direction; an insulator which has an axial hole extending in the axial direction and holds the center electrode on a front end side of an interior of the axial hole; a metal shell for holding the insulator by surrounding its periphery in a subassembly in which the center electrode is held in the axial hole of the insulator; and a ground electrode comprising one end portion joined to the metal shell and another end portion, a spark discharge gap being formed between the another end portion and the center electrode, wherein the following formula is satisfied: H ≥ 1.8 mm, and the following formulae are satisfied: 4.02 mm 2 ≤ Vi ≤ 12.51 mm 3; 2.10 mm 3 ≤ Vc ≤ 6.42 mm 3; and Vc / Vi ≤ 1.03, where: H is a length of the insulator protruding from a front end face of the metal shell toward a front end side thereof in the axial direction; Vi is a volume of a portion of the insulator which corresponds to a range of 1.5 mm from a front end of the insulator toward a rear end thereof in the axial direction; and Vc is a volume of a portion of the center electrode which corresponds to the range of 1.5 mm in the axial direction. a center electrode extending in an axial direction; an insulator which has an axial hole extending in the axial direction and holds the center electrode on a front end side of an interior of the axial hole; a metal shell for holding the insulator by surrounding its periphery in a subassembly in which the center electrode is held in the axial hole of the insulator; and a ground electrode comprising one end portion joined to the metal shell and another end portion, a spark discharge gap being formed between the another end portion and the center electrode, H is a length of the insulator protruding from a front end face of the metal shell toward a front end side thereof in the axial direction; Vi is a volume of a portion of the insulator which corresponds to a range of 1.5 mm from a front end of the insulator toward a rear end thereof in the axial direction; and Vc is a volume of a portion of the center electrode which corresponds to the range of 1.5 mm in the axial direction.