mhurhangee/ep-ind-claims huggingface dataset:
An electron beam exposure method for exposing a plurality of patterns in parallel on a wafer by use of a plurality of column cells configured to irradiate electron beams, the method comprising the steps of: obtaining a relationship between exposure intensity and a line width for each of the column cells by exposing a predetermined pattern in the column cell while changing exposure time, and measuring the line width of the pattern; obtaining a first correction parameter for correcting a slope of the relationship between exposure intensity and line width for a correction target column cell (#3) to coincide with the relationship between line width and exposure intensity for a reference column cell (#1) selected from among the plurality of column cells; obtaining a second correction parameter for correcting the intercept of the relationship between exposure intensity and line width for the correction target column cell (#3) to coincide with the relationship between line width and exposure intensity for the reference column cell (#1); obtaining reference exposure time required to form a predetermined reference pattern having a line width as designed in the reference column cell (#1); calculating exposure time of the correction target column cell (#3) by adding the second correction parameter to a value obtained by multiplying the reference exposure time by the first correction parameter; and performing exposure in the correction target column cell (#3) based on the exposure time of the correction target column cell (#3). obtaining a relationship between exposure intensity and a line width for each of the column cells by exposing a predetermined pattern in the column cell while changing exposure time, and measuring the line width of the pattern; obtaining a first correction parameter for correcting a slope of the relationship between exposure intensity and line width for a correction target column cell (#3) to coincide with the relationship between line width and exposure intensity for a reference column cell (#1) selected from among the plurality of column cells; obtaining a second correction parameter for correcting the intercept of the relationship between exposure intensity and line width for the correction target column cell (#3) to coincide with the relationship between line width and exposure intensity for the reference column cell (#1); obtaining reference exposure time required to form a predetermined reference pattern having a line width as designed in the reference column cell (#1); calculating exposure time of the correction target column cell (#3) by adding the second correction parameter to a value obtained by multiplying the reference exposure time by the first correction parameter; and performing exposure in the correction target column cell (#3) based on the exposure time of the correction target column cell (#3).
A semiconductor sensor assembly (30, 30', 30") for use in an exhaust gas environment of an automobile engine, the sensor assembly comprising: - a substrate (33, 33', 33"); - a processing device mounted on the substrate and comprising: * at least one first bondpad comprising aluminum or copper; * an overpad metalization consisting of a first corrosion resistant material, the overpad metalization having a shape comprising a proximal portion and a distal portion, the distal portion being located at a distance from and being connected to the proximal portion via an intermediate portion, the proximal portion having a shape completely covering the at least one first bondpad; - a sensor device (20, 20') comprising at least one second bondpad (21, 21'), the second bondpad consisting of and/or being covered by a second corrosion resistant material; - a bonding wire having a first end connected to the distal portion of the overpad metalization, and having a second end connected to the at least one second bondpad (21, 21') of the sensor device (20, 20'), the bonding wire consisting of a third corrosion resistant material; wherein at least part of the processing device and the proximal portion of the overpad metalization and at least part of the intermediate portion of the overpad metalization are overmoulded with a corrosion resistant plastic material, and wherein the sensor device (20, 20') is arranged inside a cavity formed in the overmoulding plastic material and the processing device is arranged adjacent to the sensor device (20, 20') or the sensor device (20, 20') is arranged on top of the processing device. - a substrate (33, 33', 33"); - a processing device mounted on the substrate and comprising: * at least one first bondpad comprising aluminum or copper; * an overpad metalization consisting of a first corrosion resistant material, the overpad metalization having a shape comprising a proximal portion and a distal portion, the distal portion being located at a distance from and being connected to the proximal portion via an intermediate portion, the proximal portion having a shape completely covering the at least one first bondpad; * at least one first bondpad comprising aluminum or copper; * an overpad metalization consisting of a first corrosion resistant material, the overpad metalization having a shape comprising a proximal portion and a distal portion, the distal portion being located at a distance from and being connected to the proximal portion via an intermediate portion, the proximal portion having a shape completely covering the at least one first bondpad; - a sensor device (20, 20') comprising at least one second bondpad (21, 21'), the second bondpad consisting of and/or being covered by a second corrosion resistant material; - a bonding wire having a first end connected to the distal portion of the overpad metalization, and having a second end connected to the at least one second bondpad (21, 21') of the sensor device (20, 20'), the bonding wire consisting of a third corrosion resistant material;
Installation for supplying a fuel cell with hydrogen, the installation comprising a fuel cell, a liquefied hydrogen storage facility and a supply circuit (4, 14) comprising at least one upstream end connected to the storage facility and one downstream end connected to a fuel inlet of the fuel cell, the supply circuit (4, 14) comprising at least one system (5, 15, 17) for heating hydrogen by heat exchange with a heat source and a set of control valves (6, 16, 26), the liquefied hydrogen storage facility being configured to keep the liquefied hydrogen in equilibrium with a gaseous phase at a determined nominal storage pressure of between 1.5 and 4.5 bar, characterized in that the supply circuit (4, 14) includes a buffer tank for pressurized gaseous hydrogen which is configured to store the hydrogen withdrawn from the storage facility and heated by the heating system (5, 15, 17), the set of valves being configured to accumulate pressurized gas in the buffer tank at a determined storage pressure of between 4 and 100 bar, for example between 6 and 8 bar, and in that the supply circuit comprises a liquid withdrawal pipe connecting the lower portion of the storage facility to the fuel inlet of the fuel cell, the liquid withdrawal pipe comprising, arranged in series: a first heating heat exchanger, and a first pressure- and/or flow rate-regulating valve, said first pressure- and/or flow rate-regulating valve being configured to feed the fuel inlet of the fuel cell at a determined operating pressure of between 1 and 3 bar.
Polyamide composition having in particular good fluid barrier properties, comprising at least one polyamide matrix, one novolac resin and one compound bearing at least one sulfonamide function, said compound bearing at least one sulfonamide function being present in a content ranging from 1 to 5% by weight, relative to the total weight of the composition.
A control method of an air conditioner, having an outdoor unit and at least one indoor unit, to perform a heating operation and a defrosting operation, the control method comprising: determining entry time of the defrosting operation during the heating operation; upon determining that it is the entry time of the defrosting operation, performing the defrosting operation; upon determining that the defrosting operation has been completed, determining a stable state of the air conditioner; upon determining that the air conditioner is in the stable state, detecting a value associated with the state of the outdoor unit and/or the indoor unit; and storing the value detected in the stable state as a stable value which is used to determine entry time of the next defrosting operation, wherein the stable state comprises a state in which an outdoor heat exchanger provided at the outdoor unit is unfrosted, and wherein the detected value comprises at least one of an operation rate of a compressor provided at the outdoor unit, a current value applied to a motor of an outdoor fan, a difference value in air pressure between an inlet and an outlet of the outdoor fan, an evaporation pressure value, a condensation pressure value, a temperature value of an outdoor heat exchanger provided at the outdoor unit and a temperature value of an indoor heat exchanger provided at the at least one indoor unit. determining entry time of the defrosting operation during the heating operation; upon determining that it is the entry time of the defrosting operation, performing the defrosting operation; upon determining that the defrosting operation has been completed, determining a stable state of the air conditioner; upon determining that the air conditioner is in the stable state, detecting a value associated with the state of the outdoor unit and/or the indoor unit; and storing the value detected in the stable state as a stable value which is used to determine entry time of the next defrosting operation, wherein the stable state comprises a state in which an outdoor heat exchanger provided at the outdoor unit is unfrosted, and wherein the detected value comprises at least one of an operation rate of a compressor provided at the outdoor unit, a current value applied to a motor of an outdoor fan, a difference value in air pressure between an inlet and an outlet of the outdoor fan, an evaporation pressure value, a condensation pressure value, a temperature value of an outdoor heat exchanger provided at the outdoor unit and a temperature value of an indoor heat exchanger provided at the at least one indoor unit.
Shoe midsole for running shoes with spring/damping elements (2, 4, 4a), characterized in that a bow-shaped spring/tread element is arranged on the underside in the forefoot region of the shoe midsole, wherein the spring/tread element is fixed by a first end to the front end of the shoe midsole and by its other end to a first spring/damping element (4, 4a), the direction of movement of which is parallel to the extension of the shoe midsole, so that it exerts a thrust force on the spring/tread element when it flexes out.
An endless belt having a spun-cord free construction for use in a digital imaging system having a first and second edges and a plurality of layers comprising: an elastomeric base layer; a support layer comprising a woven or non-woven reinforcing material on the base layer, wherein the support layer is impregnated with a material to provide electrical and/or thermal conductivity to the endless belt; and an outer elastomeric layer on the support layer, wherein the outer layer forms a seamless working surface layer; and wherein the thickness of the belt varies less than 0.001 inches (0.003 cm) from the first edge to the second edge and from one circumferential point (location) to another. an elastomeric base layer; a support layer comprising a woven or non-woven reinforcing material on the base layer, wherein the support layer is impregnated with a material to provide electrical and/or thermal conductivity to the endless belt; and an outer elastomeric layer on the support layer, wherein the outer layer forms a seamless working surface layer; and wherein the thickness of the belt varies less than 0.001 inches (0.003 cm) from the first edge to the second edge and from one circumferential point (location) to another.
A composition for forming a coating film, comprising: a silicon compound represented by the following formula: wherein R 1 s are monovalent groups independently selected from the group consisting of hydrogen, halogen atom, hydrocarbyl group, hydroxy group, hydroxy hydrocarbyl group, acyl group, acyloxy group, amino group, hydrocarbylamino group, hydrocarbyloxy group, silyl group, hydrocarbylsilyl group, imino group-containing hydrocarbyl group and imino group-containing hydrocarbylamino group, or a divalent hydrocarbon chain or a single bond which is unsubstituted or substituted by a halogen atom, hydroxy group or amino group, where different silicon atoms are unbound or bound to form a cyclic structure, L 1 is a hydrocarbon chain that contains an oxy group, where said connecting group may contain an alicycle, an aromatic ring, or a hetero ring, n1 is the number indicating degree of polymerization and exceeding 0, a polysilazane and an organic solvent. a silicon compound represented by the following formula: wherein R 1 s are monovalent groups independently selected from the group consisting of hydrogen, halogen atom, hydrocarbyl group, hydroxy group, hydroxy hydrocarbyl group, acyl group, acyloxy group, amino group, hydrocarbylamino group, hydrocarbyloxy group, silyl group, hydrocarbylsilyl group, imino group-containing hydrocarbyl group and imino group-containing hydrocarbylamino group, or a divalent hydrocarbon chain or a single bond which is unsubstituted or substituted by a halogen atom, hydroxy group or amino group, where different silicon atoms are unbound or bound to form a cyclic structure, L 1 is a hydrocarbon chain that contains an oxy group, where said connecting group may contain an alicycle, an aromatic ring, or a hetero ring, n1 is the number indicating degree of polymerization and exceeding 0, a polysilazane and an organic solvent.
Fasoracetam for use in a method of treating anxiety disorder in a subject comprising administering an effective amount of said fascoracetam to a subject that has at least one copy number variation in a metabotropric glutamate receptor (mGluR) network gene.
Method for making a chemically strengthened glass substrate with controlled curvature comprising the following operations: a) providing a substrate having first and second opposed surfaces that are durable to a given etchant solution, and having a thickness comprised between 0.1 and 3 mm, b) coating on at least part of the substrate on the first surface a first temporary thin film that reduces the extent of ion exchange upon chemical strengthening, where said first temporary thin film comprises an oxide of zinc, c) chemically strengthening the coated glass substrate, in a bath of molten salt comprising KNO 3 at a temperature between 400 and 500 °C for a duration of 20 minutes to 24 hours, d) removing the temporary thin film after said chemical strengthening with said etchant solution, where said etchant solution is an aqueous solution of an acid or of a base, wherein the first and second opposed surfaces have differing ion exchange properties in their uncoated state, the first being a high ion exchange surface and the second being a low ion exchange surface and where the first temporary thin film has a thickness such that a first controlled curvature comprised between -0.04*1/m and 0.04*1/m is obtained upon chemical strengthening. a) providing a substrate having first and second opposed surfaces that are durable to a given etchant solution, and having a thickness comprised between 0.1 and 3 mm, b) coating on at least part of the substrate on the first surface a first temporary thin film that reduces the extent of ion exchange upon chemical strengthening, where said first temporary thin film comprises an oxide of zinc, c) chemically strengthening the coated glass substrate, in a bath of molten salt comprising KNO 3 at a temperature between 400 and 500 °C for a duration of 20 minutes to 24 hours, d) removing the temporary thin film after said chemical strengthening with said etchant solution, where said etchant solution is an aqueous solution of an acid or of a base,
Method for testing an optical examination system, namely an exoscopy system or endoscopy system, in particular for photodynamic diagnostics, comprising an imaging apparatus, a camera and a light source for optically examining an object, comprising the following steps: illuminating a reference surface with predetermined optical properties using illumination light from the light source; acquiring an image of the reference surface by means of the imaging apparatus and the camera; acquiring an operating state of the camera, which operating state is present during the acquisition of the image; determining the functionality or another property of the examination system on the basis of the acquired operating state, wherein the step of illuminating comprises, in succession, an illumination of the reference surface with illumination light having a first spectrum and an illumination of the reference surface with illumination light having a second spectrum, a first operating state of the camera, which is present during the acquisition of an image when illuminating the reference surface with the illumination light having the first spectrum, is acquired, a second operating state of the camera, which is present during the acquisition of an image when illuminating the reference surface with the illumination light having the second spectrum, is acquired, and the functionality or the other property is determined on the basis of the first operating state and the second operating state. illuminating a reference surface with predetermined optical properties using illumination light from the light source; acquiring an image of the reference surface by means of the imaging apparatus and the camera; acquiring an operating state of the camera, which operating state is present during the acquisition of the image; determining the functionality or another property of the examination system on the basis of the acquired operating state, wherein the step of illuminating comprises, in succession, an illumination of the reference surface with illumination light having a first spectrum and an illumination of the reference surface with illumination light having a second spectrum, a first operating state of the camera, which is present during the acquisition of an image when illuminating the reference surface with the illumination light having the first spectrum, is acquired, a second operating state of the camera, which is present during the acquisition of an image when illuminating the reference surface with the illumination light having the second spectrum, is acquired, and the functionality or the other property is determined on the basis of the first operating state and the second operating state.
An apparatus for treating organic mass comprising: a chamber for containing a mixture of organic mass and one or more micro-organisms selected to degrade the organic mass; and agitation means provided in the chamber to agitate the mixture, the agitation means comprising: a rotatable shaft extending through a central bore of the chamber, a plurality of agitator arms extending from the shaft, and a paddle connected to each of the plurality of agitator arms, the paddle is arranged to make a first angle with respect to the longitudinal axis of the connected agitator arm and arranged at a second angle with respect to the longitudinal axis of the shaft; wherein the plurality of agitator arms with each connected with the paddle angled at the first and second angles enable homogenous mixing of the mixture without spilling out of the chamber in response to rotation of the shaft, characterized in that the second angle of the paddle of each of the plurality of agitator arms is arranged at a different angle for directing the mixture in different directions, and that the second angle of the paddle of each of the plurality of agitator arms runs sequentially from 0° to 180°. a chamber for containing a mixture of organic mass and one or more micro-organisms selected to degrade the organic mass; and agitation means provided in the chamber to agitate the mixture, the agitation means comprising: a rotatable shaft extending through a central bore of the chamber, a plurality of agitator arms extending from the shaft, and a paddle connected to each of the plurality of agitator arms, the paddle is arranged to make a first angle with respect to the longitudinal axis of the connected agitator arm and arranged at a second angle with respect to the longitudinal axis of the shaft; a rotatable shaft extending through a central bore of the chamber, a plurality of agitator arms extending from the shaft, and a paddle connected to each of the plurality of agitator arms, the paddle is arranged to make a first angle with respect to the longitudinal axis of the connected agitator arm and arranged at a second angle with respect to the longitudinal axis of the shaft;
A composite tube comprising: an inner layer comprising a silicone polymer, wherein the inner layer has a surface that defines a central lumen of the composite tube; an adhesive layer adjacent to the inner layer, wherein the adhesive layer comprises an adhesive silicone material comprising a silicone polymer and an adhesion promoter, and an outer layer adjacent to the adhesive layer, wherein the outer layer comprises a thermoplastic polymer having a functional group that forms a chemical bond with the adhesion promoter of the adhesive silicone material. an inner layer comprising a silicone polymer, wherein the inner layer has a surface that defines a central lumen of the composite tube; an adhesive layer adjacent to the inner layer, wherein the adhesive layer comprises an adhesive silicone material comprising a silicone polymer and an adhesion promoter, and an outer layer adjacent to the adhesive layer, wherein the outer layer comprises a thermoplastic polymer having a functional group that forms a chemical bond with the adhesion promoter of the adhesive silicone material.
Method performed by at least one control plane node of controlling a communication mode of a mobile terminal in a mobile service chaining network comprising a group of devices to which data packets are forwarded according to which service chain the packets need to traverse and where the corresponding devices are located, based on data packet headers, the method comprising: initiating setting of the mobile terminal in idle mode; and submitting an instruction to at least one Internet Protocol Advertisement Point, IAP, comprised in the mobile service chaining network for enabling the facilitating of a network without a mobility anchor point by advertising a range of Internet Protocol, IP, addresses/prefixes towards an IP network to which a number of peer devices may be connected, the at least one IAP serving the mobile terminal, invalidate context for the mobile terminal held by the at least one IAP, wherein the at least one IAP invalidates at least a registered Internet Protocol, IP, address used for the mobile terminal. initiating setting of the mobile terminal in idle mode; and submitting an instruction to at least one Internet Protocol Advertisement Point, IAP, comprised in the mobile service chaining network for enabling the facilitating of a network without a mobility anchor point by advertising a range of Internet Protocol, IP, addresses/prefixes towards an IP network to which a number of peer devices may be connected, the at least one IAP serving the mobile terminal, invalidate context for the mobile terminal held by the at least one IAP, wherein the at least one IAP invalidates at least a registered Internet Protocol, IP, address used for the mobile terminal.
Seat trim for a vehicle seat, said trim comprising a three-dimensionally knitted trim body and at least one functional element which is integrated into the trim body, characterized in that the seat trim comprises a closable opening region for fitting over the vehicle seat, wherein the opening region can be closed by means of a zip fastener.