mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal, comprising: a housing, a cover plate, a display panel and a photographing module, wherein an accommodation space is formed between the housing and the cover plate, the display panel and the photographing module are provided in the accommodation space, the photographing module is provided on a side of the display panel away from the cover plate; a first region of the display panel facing the photographing module is provided with a light shielding layer for shielding light at a predetermined wavelength, and the light at the predetermined wavelength is allowed to pass through a second region of the display panel facing the photographing module; wherein the first region is provided with thin film transistor circuits, and a light shielding material for shielding the light at the predetermined wavelength is attached to surfaces of the thin film transistor circuits to form the light shielding layer; characterized in that, the second region of the display panel, which is configured to allow the light at the predetermined wavelength to pass through, is formed by gaps between the thin film transistor circuits. wherein an accommodation space is formed between the housing and the cover plate, the display panel and the photographing module are provided in the accommodation space, the photographing module is provided on a side of the display panel away from the cover plate; a first region of the display panel facing the photographing module is provided with a light shielding layer for shielding light at a predetermined wavelength, and the light at the predetermined wavelength is allowed to pass through a second region of the display panel facing the photographing module; wherein the first region is provided with thin film transistor circuits, and a light shielding material for shielding the light at the predetermined wavelength is attached to surfaces of the thin film transistor circuits to form the light shielding layer; characterized in that, the second region of the display panel, which is configured to allow the light at the predetermined wavelength to pass through, is formed by gaps between the thin film transistor circuits.
A valve assembly for use with a liquid container and a drug vial, the liquid container including dual access ports and containing liquid contents, and the drug vial having a drug vial stopper and a drug vial interior containing a medicament, the valve assembly comprising: (a) a drug vial adapter having a longitudinal drug vial adapter axis and including a drug vial adapter body with a top wall transverse to said longitudinal drug vial adapter axis, a pointed tubular cannula with a cannula tip for puncturing the drug vial stopper for establishing flow communication with the drug vial interior on mounting said drug vial adapter on the drug vial, and an upright male connector mounted on said top wall opposite said cannula and in flow communication therewith, said male connector having an uppermost annular male connector rim, and (b) an access port adapter having a longitudinal access port adapter axis co-directional with said longitudinal drug vial adapter axis and including an access port connector for sealing insertion into one of the access ports and a female connector for sealingly mounting on said male connector, characterized in that, said drug vial adapter being manually-reciprocally mounted on said access port adapter so as to be manually reciprocal with respect thereto along said longitudinal drug vial adapter axis between a closed position for precluding flow communication between the liquid container and the drug vial and an open position for enabling flow communication between the liquid container and the drug vial, said drug vial adapter being disposed toward said access port adapter on displacement from said open position to said closed position and away from said access port adapter on displacement from said closed position to said open position. (a) a drug vial adapter having a longitudinal drug vial adapter axis and including a drug vial adapter body with a top wall transverse to said longitudinal drug vial adapter axis, a pointed tubular cannula with a cannula tip for puncturing the drug vial stopper for establishing flow communication with the drug vial interior on mounting said drug vial adapter on the drug vial, and an upright male connector mounted on said top wall opposite said cannula and in flow communication therewith, said male connector having an uppermost annular male connector rim, and (b) an access port adapter having a longitudinal access port adapter axis co-directional with said longitudinal drug vial adapter axis and including an access port connector for sealing insertion into one of the access ports and a female connector for sealingly mounting on said male connector, characterized in that,
A can combustor for a gas turbine, the can combustor comprising: - at least a burner (5, 20, 22); - at least a liner (7, 26) downstream the burner (5, 20, 22) and defining an inner combustion chamber (6, 21, 23); - a damper comprising a damper body defining a damping volume wrapped outside around the liner (7, 26) and in fluid connection with the combustion chamber (6, 23); the damper body being spaced from the liner (7, 26) in order to form a cooling gap between the damper body and the liner (7, 26) and limited by an inner surface of the damper body facing an outer surface of the liner (7, 26), being present at least a damper neck acting as a bridge in the cooling gap between the liner (7, 26) and the damper body for fluidly connecting the damping volume with the combustion chamber (6, 23); characterized in that the cooling gap between the damper body and the liner (7, 26) is provided with a cooling device configured for increasing the heat transfer between the cooling air passing in the gap and the liner (7, 26) and the damper body, the cooling device being arranged on the outer surface of the liner (7, 26) and on the inner surface of the damper body. - at least a burner (5, 20, 22); - at least a liner (7, 26) downstream the burner (5, 20, 22) and defining an inner combustion chamber (6, 21, 23); - a damper comprising a damper body defining a damping volume wrapped outside around the liner (7, 26) and in fluid connection with the combustion chamber (6, 23); the damper body being spaced from the liner (7, 26) in order to form a cooling gap between the damper body and the liner (7, 26) and limited by an inner surface of the damper body facing an outer surface of the liner (7, 26), being present at least a damper neck acting as a bridge in the cooling gap between the liner (7, 26) and the damper body for fluidly connecting the damping volume with the combustion chamber (6, 23); characterized in that the cooling gap between the damper body and the liner (7, 26) is provided with a cooling device configured for increasing the heat transfer between the cooling air passing in the gap and the liner (7, 26) and the damper body, the cooling device being arranged on the outer surface of the liner (7, 26) and on the inner surface of the damper body.
A chip module for installation into a recess of a chip card body by means of a heat-activatable adhesive, comprising a substrate with contact areas in a central region of the substrate front side for the contact-type contacting of the chip module and with heat introduction regions configured in an edge area of the substrate front side for the introduction of heat into the chip module and furthermore comprising a chip electro-conductively connected with the contact areas, characterized in that - the heat introduction regions are separate from the contact areas and do not serve as an electrical conductor, - in the substrate there are configured one or several heat conducting bridges which consist of a material with higher thermal conductivity than the substrate material, and - the heat conducting bridges heat-conductively connect the heat introduction regions on the substrate front side with a back side of the substrate. - the heat introduction regions are separate from the contact areas and do not serve as an electrical conductor, - in the substrate there are configured one or several heat conducting bridges which consist of a material with higher thermal conductivity than the substrate material, and - the heat conducting bridges heat-conductively connect the heat introduction regions on the substrate front side with a back side of the substrate.
A compressor device comprising: a compressor section with a compressor wheel; a motor section with an electric motor that is encased by a motor case and an outer motor housing, the motor case supported within the outer motor housing; a shaft that extends between the compressor wheel and the motor section, the shaft configured to be driven in rotation about an axis by the electric motor to drivingly rotate the compressor wheel within the compressor section; a motor cooling system with an inlet, an outlet, and a coolant jacket defined between the motor case and the outer motor housing to jacket the electric motor, the inlet extending through the outer motor housing and configured to feed a coolant fluid to the coolant jacket, the outlet extending through the outer motor housing and configured to receive the coolant from the coolant jacket; the coolant jacket configured to direct flow of the coolant fluid from the inlet to the outlet, the coolant jacket including a plurality of flow passages configured to distribute flow of the coolant fluid about the motor case, the plurality of flow passages defining at least one diverging flow path and at least one converging flow path; and the coolant jacket including a radial portion that spans about the motor case in a circumferential direction and an axial direction with respect to the axis, the coolant jacket including an axial portion that spans in a radial direction across an axial end of the motor case, at least one of the plurality of flow passages fluidly connecting the radial portion and the axial portion. a compressor section with a compressor wheel; a motor section with an electric motor that is encased by a motor case and an outer motor housing, the motor case supported within the outer motor housing; a shaft that extends between the compressor wheel and the motor section, the shaft configured to be driven in rotation about an axis by the electric motor to drivingly rotate the compressor wheel within the compressor section; a motor cooling system with an inlet, an outlet, and a coolant jacket defined between the motor case and the outer motor housing to jacket the electric motor, the inlet extending through the outer motor housing and configured to feed a coolant fluid to the coolant jacket, the outlet extending through the outer motor housing and configured to receive the coolant from the coolant jacket; the coolant jacket configured to direct flow of the coolant fluid from the inlet to the outlet, the coolant jacket including a plurality of flow passages configured to distribute flow of the coolant fluid about the motor case, the plurality of flow passages defining at least one diverging flow path and at least one converging flow path; and the coolant jacket including a radial portion that spans about the motor case in a circumferential direction and an axial direction with respect to the axis, the coolant jacket including an axial portion that spans in a radial direction across an axial end of the motor case, at least one of the plurality of flow passages fluidly connecting the radial portion and the axial portion.
A circuit for controlling DC offset error for an inductor current ripple based, constant-on time DC-DC converter, the circuit comprising: a ripple generation circuit connected to a reference voltage input (V BG) and to a sense voltage input (V SENSE), and having a reference voltage output (V REF) to form a main loop; and a DC error correction circuit connected between the reference voltage input and the sense voltage input and a feedback voltage input (V FB), and the reference voltage output of the ripple generation circuit, the DC error correction circuit including: a coarse DC error correction loop connected between the sense voltage input and the reference voltage output; and a fine DC error correction loop connected between the reference voltage input and the feedback voltage input, and the reference voltage output. a ripple generation circuit connected to a reference voltage input (V BG) and to a sense voltage input (V SENSE), and having a reference voltage output (V REF) to form a main loop; and a DC error correction circuit connected between the reference voltage input and the sense voltage input and a feedback voltage input (V FB), and the reference voltage output of the ripple generation circuit, the DC error correction circuit including: a coarse DC error correction loop connected between the sense voltage input and the reference voltage output; and a fine DC error correction loop connected between the reference voltage input and the feedback voltage input, and the reference voltage output. a coarse DC error correction loop connected between the sense voltage input and the reference voltage output; and a fine DC error correction loop connected between the reference voltage input and the feedback voltage input, and the reference voltage output.
Holding device with holding elements by way of which a mounting unit, which is to be fastened, can be held in a receptacle, wherein - the holding device comprises a receptacle with a substantially round opening, - at least three holding elements are arranged in the region of the opening, - the holding elements are constructed as detent arms, - the detent arms have a projecting hook and - the detent arms have a connecting section by way of which the detent arms are connected with an element, which surrounds the opening, of the receptacle, characterised in that - the detent arms have a hook section extending substantially orthogonally to the connecting section, wherein a first length direction of the connecting section and a second length direction of the hook section lie in a plane, and - the hooks of the detent arms extend substantially orthogonally to the hook section, wherein a length direction for the hooks refers to an axis of the hook orthogonal to the afore-mentioned plane. - the holding device comprises a receptacle with a substantially round opening, - at least three holding elements are arranged in the region of the opening, - the holding elements are constructed as detent arms, - the detent arms have a projecting hook and - the detent arms have a connecting section by way of which the detent arms are connected with an element, which surrounds the opening, of the receptacle, - the detent arms have a hook section extending substantially orthogonally to the connecting section, wherein a first length direction of the connecting section and a second length direction of the hook section lie in a plane, and - the hooks of the detent arms extend substantially orthogonally to the hook section, wherein a length direction for the hooks refers to an axis of the hook orthogonal to the afore-mentioned plane.
A therapeutic gas delivery device (100, 200) comprising: an inlet to connect to a source of therapeutic gas; an outlet to connect to a device that introduces the therapeutic gas to a patient; at least one binary control valve in fluid communication with the inlet and outlet that delivers a constant flow of the therapeutic gas; at least one proportional control valve in fluid communication with the inlet and outlet that delivers a variable flow of the therapeutic gas; a control system that delivers the therapeutic gas through one or more of the binary control valve and the proportional control valve; wherein the control system delivers the therapeutic gas into a flow of breathing gas through one or more of the binary control valve and the proportional control valve to provide a combined flow of therapeutic gas and breathing gas with a substantially constant concentration of therapeutic gas; and. characterized in that the binary control valve and the proportional control valve are in parallel flow paths and the control system delivers a continuous flow of therapeutic gas through the proportional control valve when a therapeutic gas demand is greater than or equal to 5% of a delivery range and delivers one or more pulses of therapeutic gas through the binary control valve when the therapeutic gas demand is less than or equal to 1% of the delivery range. an inlet to connect to a source of therapeutic gas; an outlet to connect to a device that introduces the therapeutic gas to a patient; at least one binary control valve in fluid communication with the inlet and outlet that delivers a constant flow of the therapeutic gas; at least one proportional control valve in fluid communication with the inlet and outlet that delivers a variable flow of the therapeutic gas; a control system that delivers the therapeutic gas through one or more of the binary control valve and the proportional control valve; wherein the control system delivers the therapeutic gas into a flow of breathing gas through one or more of the binary control valve and the proportional control valve to provide a combined flow of therapeutic gas and breathing gas with a substantially constant concentration of therapeutic gas; and. characterized in that the binary control valve and the proportional control valve are in parallel flow paths and the control system delivers a continuous flow of therapeutic gas through the proportional control valve when a therapeutic gas demand is greater than or equal to 5% of a delivery range and delivers one or more pulses of therapeutic gas through the binary control valve when the therapeutic gas demand is less than or equal to 1% of the delivery range.
Multicomposite reinforcer ( R1, R2) comprising at least: - one or more monofilament(s) made of glass-resin composite (abbreviated to "GRC") comprising glass filaments embedded in a thermoset resin, the glass transition temperature of which, denoted Tg 1, is greater than 150°C; - individually covering said monofilament, each monofilament or collectively several monofilaments, a layer of a thermoplastic material, the glass transition temperature of which, denoted Tg 2, is greater than 20°C. - one or more monofilament(s) made of glass-resin composite (abbreviated to "GRC") comprising glass filaments embedded in a thermoset resin, the glass transition temperature of which, denoted Tg 1, is greater than 150°C; - individually covering said monofilament, each monofilament or collectively several monofilaments, a layer of a thermoplastic material, the glass transition temperature of which, denoted Tg 2, is greater than 20°C.
A device for detecting and visualizing underground objects in an environment, the device comprising: - first means configured for collecting first data regarding the underground objects by means of ground-penetrating radar, GPR, technique; - second means configured for converting the first data into first virtual images of the underground objects; and - third means configured for combining the first virtual images with real images of the environment by means of mixed reality, MR, technique and showing the combined images to a user, characterized in that: - the device also comprises fourth means configured for extracting second data regarding the underground objects from a geographical information system, GIS, database; - the second means are also configured for converting the second data into second virtual images of the underground objects; and - the third means are also configured for combining the second virtual images with the first virtual images and the real images by means of mixed reality, MR, technique and showing the combined images to the user. - first means configured for collecting first data regarding the underground objects by means of ground-penetrating radar, GPR, technique; - second means configured for converting the first data into first virtual images of the underground objects; and - third means configured for combining the first virtual images with real images of the environment by means of mixed reality, MR, technique and showing the combined images to a user, - the device also comprises fourth means configured for extracting second data regarding the underground objects from a geographical information system, GIS, database; - the second means are also configured for converting the second data into second virtual images of the underground objects; and - the third means are also configured for combining the second virtual images with the first virtual images and the real images by means of mixed reality, MR, technique and showing the combined images to the user.
A method for diagnosing a slave computer (102,103) communicating with a master computer, said computer being carried in a vehicle, said method comprising steps of: - Receipt of a fault code from the slave computer, - Determination whether the fault code received is associated with a function of the vehicle, - Recording the fault code in memory only if the fault code is associated with a function of the vehicle, said method being carried out by the master control unit. - Receipt of a fault code from the slave computer, - Determination whether the fault code received is associated with a function of the vehicle, - Recording the fault code in memory only if the fault code is associated with a function of the vehicle, said method being carried out by the master control unit.
A process for manufacturing of a soft chewable veterinary pharmaceutical product for oral administration comprising at least one active pharmaceutical ingredient wherein one active pharmaceutical ingredient is 4-[5-(3,5-Dichlorophenyl)-5-trifluoromethyl-4,5-dihydroisoxazol-3-yl]-2-methyl-N-[(2,2,2-trifluoro-ethylcarbamoyl)-methyl]-benzamide and a forming agent, and the soft chewable veterinary pharmaceutical product is formed with a rotary molding machine comprising the steps of: a) mixing at least one active pharmaceutical ingredient, wherein one active pharmaceutical ingredient is 4-[5-(3,5-Dichlorophenyl)-5-trifluoromethyl-4,5-dihydroisoxazol-3-yl]-2-methyl-N-[(2,2,2-trifluoro-ethylcarbamoyl)-methyl]-benzamide with one or more dry and liquid components to prepare a premix, b) heating a forming agent until melting, c) mixing the premix and the forming agent together to form a dough, d) feeding the dough into a container connected with a rotary molding machine; and e) the dough is then processed in a rotary moulding machine to form soft chewable veterinary pharmaceutical unit doses that are withdrawn from the moulds without a knockoff or punch mechanism. a) mixing at least one active pharmaceutical ingredient, wherein one active pharmaceutical ingredient is 4-[5-(3,5-Dichlorophenyl)-5-trifluoromethyl-4,5-dihydroisoxazol-3-yl]-2-methyl-N-[(2,2,2-trifluoro-ethylcarbamoyl)-methyl]-benzamide with one or more dry and liquid components to prepare a premix, b) heating a forming agent until melting, c) mixing the premix and the forming agent together to form a dough, d) feeding the dough into a container connected with a rotary molding machine; and e) the dough is then processed in a rotary moulding machine to form soft chewable veterinary pharmaceutical unit doses that are withdrawn from the moulds without a knockoff or punch mechanism.
A medical implantable device comprising a bundle of metal strands at a proximal end, said bundle having a diameter, and a welded end portion, wherein said welded end portion is a metal clot having a larger diameter than said bundle of strands' diameter.