mhurhangee/ep-ind-claims huggingface dataset:
A combination comprising phenoxybenzamine or a pharmaceutically acceptable salt and/or solvate thereof, and polymyxin E or a pharmaceutically acceptable salt and/or solvate thereof.
Thermal management device for an energy storage unit, comprising tubes arranged parallel to one another and of which at least one face is able to accept the said energy storage unit, the said thermal management device further comprising at least one composite phase change material placed on that face of the tubes that is able to accept the energy storage unit, characterized in that the said composite phase change material is arranged in strips, the strips either: - completely covering that face of the tubes that faces the energy storage unit, or - partially covering the face of the tubes, a thermally conducting spacer being placed on the face of the tubes facing the energy storage unit that is not covered with strips. - completely covering that face of the tubes that faces the energy storage unit, or - partially covering the face of the tubes, a thermally conducting spacer being placed on the face of the tubes facing the energy storage unit that is not covered with strips.
A cooling roll for manufacturing a thermoplastic resin sheet, for use in a method in which a resin sheet that is made of a molten thermoplastic resin and has a volume resistivity value of 10 9 Ωcm or less is continuously extruded from a grounded mouthpiece onto a surface of a cooling roll that is continuously rotated, the resin sheet is cooled and solidified while being rotated and transferred in a state of intimate contact with the surface of the cooling roll, and then the cooled and solidified resin sheet is continuously peeled off from the cooling roll to obtain a thermoplastic resin sheet, the cooling roll comprising: an outermost layer with which the resin sheet (8, 12) comes into intimate contact; a conductive unipolar internal electrode layer that is adjacent to an interior side of the outermost layer; and an insulating layer that is adjacent to an interior side of the internal electrode layer, wherein the cooling roll is configured such that a predetermined voltage can be applied to the internal electrode layer, the outermost layer is made of a ceramics-based material and has a volume resistivity value of 10 7 to 10 13 Ωcm at 25 to 100°C, the cooling roll is designed to generate an electrostatic force with which the resin sheet (8, 12) in contact with the outermost layer is brought into a state of intimate contact with the outermost layer in a state in which the predetermined voltage is applied to the internal electrode layer, wherein the electrostatic force is mainly based on the Johnsen-Rahbek effect and the cooling roll is cooled by a cooling medium inside the cooling roll. an outermost layer with which the resin sheet (8, 12) comes into intimate contact; a conductive unipolar internal electrode layer that is adjacent to an interior side of the outermost layer; and an insulating layer that is adjacent to an interior side of the internal electrode layer, wherein the cooling roll is configured such that a predetermined voltage can be applied to the internal electrode layer, the outermost layer is made of a ceramics-based material and has a volume resistivity value of 10 7 to 10 13 Ωcm at 25 to 100°C, the cooling roll is designed to generate an electrostatic force with which the resin sheet (8, 12) in contact with the outermost layer is brought into a state of intimate contact with the outermost layer in a state in which the predetermined voltage is applied to the internal electrode layer, wherein the electrostatic force is mainly based on the Johnsen-Rahbek effect and the cooling roll is cooled by a cooling medium inside the cooling roll.
A combustion gas admixing device for a gas-powered internal combustion engine, comprising a housing component which is connectable to an intake pipe of the internal combustion engine, the housing component having an inlet for connection to a gaseous fuel supply conduit and an outlet which opens into the intake pipe and is configured as a slit whose longitudinal extension is oriented approximately perpendicular to the axial direction of the intake pipe, and a valve body which is movable relative to the housing component, wherein an annular gap is formed between the valve body and an outlet opening of the housing component whose cross-sectional area depends on the position of the valve body, the annular gap defining the flow-through cross-section of a passageway between the inlet and the outlet, wherein the arrangement is such that a gaseous fuel flow exhausting from the slit is directed approximately perpendicular to the axial direction of the intake pipe.
An integrated circuit comprising: programmable clock division logic circuitry, wherein the programmable clock division logic circuitry outputs a number of divided clock sources; the integrated circuit is characterised by a built-in self-test BIST circuitry including: divided clock counter circuitry for each of the divided clock sources, the divided clock counter circuitry including scan chain circuitry through which pseudo random scan patterns are shifted through the scan chain circuitry, wherein the divided clock counter circuitry is configured to: use a shift clock signal during a scan shift mode of operation, use a corresponding one of the divided clock signals during a capture mode of operation, count a number of clock pulses during the capture mode of operation, and output scan test signatures that include scan test results during the capture mode of operation; and a BIST controller configured to determine when a number of the predefined test patterns have been processed by the programmable clock division logic circuitry and compare an expected test signature to a final scan test signature to test logic in the divided clock counter circuitry. divided clock counter circuitry for each of the divided clock sources, the divided clock counter circuitry including scan chain circuitry through which pseudo random scan patterns are shifted through the scan chain circuitry, wherein the divided clock counter circuitry is configured to: use a shift clock signal during a scan shift mode of operation, use a corresponding one of the divided clock signals during a capture mode of operation, count a number of clock pulses during the capture mode of operation, and output scan test signatures that include scan test results during the capture mode of operation; and use a shift clock signal during a scan shift mode of operation, use a corresponding one of the divided clock signals during a capture mode of operation, count a number of clock pulses during the capture mode of operation, and output scan test signatures that include scan test results during the capture mode of operation; and a BIST controller configured to determine when a number of the predefined test patterns have been processed by the programmable clock division logic circuitry and compare an expected test signature to a final scan test signature to test logic in the divided clock counter circuitry.
A recombinant vesicular stomatitis virus vector encoding a VSV G comprising the leader peptide, ectodomain, stem, trans-membrane spanning domain and cytoplasmic tail, wherein the VSV G harbors epitopes from the HIV Env membrane proximal external region (MPER) inserted into the stem region of VSV G, wherein the MPER sequence contains an insertion and/or substitution of HIV epitopes 2F5 comprising the sequence ELDKWASL and/or 4E10 comprising the sequence WFDITNWLW.
A graft copolymer comprising: a polycarbonate polymer backbone comprising repeating units derived from diallyl bisphenol A; and polyvinylpyrrolidone pendant chains grafted to the polycarbonate polymer backbone. a polycarbonate polymer backbone comprising repeating units derived from diallyl bisphenol A; and polyvinylpyrrolidone pendant chains grafted to the polycarbonate polymer backbone.
An apparatus for administering anesthetic fluid into close proximity to a nerve to effect a peripheral nerve block, the apparatus comprising: an injection system for controlling a flow of the fluid from a fluid reservoir to a needle, wherein the needle is configured for subcutaneous insertion into a mammalian subject; a sensor for detecting a characteristic indicative of the fluid pressure in the needle, wherein the sensor is configured to continuously detect the characteristic as the needle is inserted into the subject; and an electric nerve stimulation element for providing an electric nerve stimulation at or adjacent to a tip of the needle; characterised in that the electric nerve stimulation element provides electric nerve stimulation to a patient automatically after the sensor detects a characteristic of the fluid pressure indicative of the fluid pressure exceeding an upper threshold. an injection system for controlling a flow of the fluid from a fluid reservoir to a needle, wherein the needle is configured for subcutaneous insertion into a mammalian subject; a sensor for detecting a characteristic indicative of the fluid pressure in the needle, wherein the sensor is configured to continuously detect the characteristic as the needle is inserted into the subject; and an electric nerve stimulation element for providing an electric nerve stimulation at or adjacent to a tip of the needle; characterised in that the electric nerve stimulation element provides electric nerve stimulation to a patient automatically after the sensor detects a characteristic of the fluid pressure indicative of the fluid pressure exceeding an upper threshold.
A patient interface structure for aiding in the measurement of an attribute of tissue of a patient, comprising: a flexible base member having a top side and a bottom side and which is elongate between first and second rounded ends thereof so as to define a longitudinal axis, light guide means comprising send and receive fibers (29,30) each having ends, for transmitting and receiving light radiation, characterised in that a first wing, and a second wing extend from the second end of the base member, and further comprising a concave region between said wings which serves as a locating feature wherein the concave region is concave in the longitudinal axis direction into the base member and disposed so as to be bisected, or substantially bisected, by the longitudinal axis, and wherein said fiber ends lie in a line generally along said longitudinal axis and said fiber ends being adapted to be substantially coplanar when in use. a flexible base member having a top side and a bottom side and which is elongate between first and second rounded ends thereof so as to define a longitudinal axis, light guide means comprising send and receive fibers (29,30) each having ends, for transmitting and receiving light radiation, characterised in that a first wing, and a second wing extend from the second end of the base member, and further comprising a concave region between said wings which serves as a locating feature wherein the concave region is concave in the longitudinal axis direction into the base member and disposed so as to be bisected, or substantially bisected, by the longitudinal axis, and wherein said fiber ends lie in a line generally along said longitudinal axis and said fiber ends being adapted to be substantially coplanar when in use.
A synthetic optical image system, comprising an array of focusing elements, and an image system including an array of microstructured icon elements designed to collectively form an image, wherein the array of focusing elements and the image system cooperate to form a synthetic optical image, wherein the array of microstructured icon elements is incorporated into an icon layer which is provided on a surface of a substrate, the microstructured icon layer comprising depressed shapes and flats between them, wherein the flats are substantially parallel to the surface of the substrate; the synthetic optical image system, further including a coating material applied to at least a portion of the surface of the microstructured icon layer; wherein the coating material is patterned with a geometry that does not coordinate with the geometry of the microstructured icon elements, wherein the coating material carries a different pattern of icon elements, wherein the coating material is a patterned demetallized metal coating creating a different set of icon elements from the microstructured icon elements that are used to generate a second set of synthetic images, wherein the patterning of the coating material constitutes regions where the coating material is present and regions where the coating material is absent and wherein the coating material coats portions of depressed shapes of the icon elements and portions of flats between them.
A therapeutic agent that activates mTORC1 function in a subject's brain as compared to the function in the subject prior to treatment for use in treating Huntington's disease in the subject, wherein the therapeutic agent comprises a constitutively active Ras homolog enriched in brain (Rheb) mutant (caRheb; S16H), wherein the therapeutic agent is administered to the brain of the subject, and wherein the therapeutic agent is administered by administering an adeno-associated viral vector comprising a nucleic acid encoding the therapeutic agent functionally linked to a promoter.
A flat panel display, comprising: a substrate, the display including a pixel region and a non-pixel region and the display having a transistor in the pixel region and a plurality of adjacent pads in the non-pixel region; a first planarizing layer disposed in the pixel region covering a portion of the transistor and including a via hole for exposing a portion of the transistor; a second planarizing layer disposed in the non-pixel region and having a plurality of pad contact holes, each exposing a portion of one of the pads, the second planarizing layer being thinner than the first planarizing layer; and an adhesive on the pads, the adhesive comprising conductive balls; wherein the pads are arranged to contact the conductive balls and a thickness of the second planarizing layer on the pads is smaller than a diameter of the conductive balls; characterised in that the second planarizing layer is arranged to cover the both sides and an upper portion of each pad and to expose a space between adjacent pads. a substrate, the display including a pixel region and a non-pixel region and the display having a transistor in the pixel region and a plurality of adjacent pads in the non-pixel region; a first planarizing layer disposed in the pixel region covering a portion of the transistor and including a via hole for exposing a portion of the transistor; a second planarizing layer disposed in the non-pixel region and having a plurality of pad contact holes, each exposing a portion of one of the pads, the second planarizing layer being thinner than the first planarizing layer; and an adhesive on the pads, the adhesive comprising conductive balls; wherein the pads are arranged to contact the conductive balls and a thickness of the second planarizing layer on the pads is smaller than a diameter of the conductive balls; characterised in that the second planarizing layer is arranged to cover the both sides and an upper portion of each pad and to expose a space between adjacent pads.
A connector comprising: an electric wire; a terminal connected to the electric wire; a housing having a housing space to house a connection portion of the electric wire and the terminal; and a heat storage member being made of metal material, having a function of absorbing heat generated at the connection portion between the electric wire and the terminal and dissipating the heat to an outside of the connector, and being located in the housing space, characterized in that the heat storage member is press-fitted between an inner wall surface of the housing and a surface of the terminal, wherein the inner wall surface defines the housing space, and the connector further comprises a seal member to seal an opening portion of the housing space to isolate the connection portion housed in the housing space from an outside. an electric wire; a terminal connected to the electric wire; a housing having a housing space to house a connection portion of the electric wire and the terminal; and a heat storage member being made of metal material, having a function of absorbing heat generated at the connection portion between the electric wire and the terminal and dissipating the heat to an outside of the connector, and being located in the housing space, characterized in that the heat storage member is press-fitted between an inner wall surface of the housing and a surface of the terminal, wherein the inner wall surface defines the housing space, and the connector further comprises a seal member to seal an opening portion of the housing space to isolate the connection portion housed in the housing space from an outside.
A method for manufacturing a bonded wafer comprising the steps of: a.preparing a first wafer and a second wafer by mirror polishing at least one surface of each of said wafers; b.forming an oxide film on any one of the two wafers (1,2) c.implanting at least one of hydrogen ions and rare gas ions from the surface of the first wafer to form a micro bubble layer (an implanting layer) in the first wafer; d. removing by a chemical and mechanical polishing process impurities attached onto the surface of the first wafer to which the ions are implanted; e. bringing the first and second wafers into contact to join the same together f. separating the first wafer in a thin-film form at said micro bubble layer by adding heat treatment to the surface of the first wafer subjected to the impurities removing step in close contact with the surface of a second wafer to form a separated wafer and a Silicon On Insulator layer. a.preparing a first wafer and a second wafer by mirror polishing at least one surface of each of said wafers; b.forming an oxide film on any one of the two wafers (1,2) c.implanting at least one of hydrogen ions and rare gas ions from the surface of the first wafer to form a micro bubble layer (an implanting layer) in the first wafer; d. removing by a chemical and mechanical polishing process impurities attached onto the surface of the first wafer to which the ions are implanted; e. bringing the first and second wafers into contact to join the same together f. separating the first wafer in a thin-film form at said micro bubble layer by adding heat treatment to the surface of the first wafer subjected to the impurities removing step in close contact with the surface of a second wafer to form a separated wafer and a Silicon On Insulator layer.
System for counting the number of wheel revolutions of a vehicle, comprising: - an electronic device for counting the number of wheel revolutions, - a device (13,14) for transmitting data from the electronic counting device to a remote database, the electronic counting device being installed in a housing, and the system being characterized in that it comprises attachment means (30, 40) for the removable attachment of the housing to a nut anti-loosening device installed on a wheel of the vehicle. - an electronic device for counting the number of wheel revolutions, - a device (13,14) for transmitting data from the electronic counting device to a remote database,
A method for controlling a supply of refrigerant to an evaporator of a vapour compression system, the vapour compression system comprising at least one evaporator, at least one compressor, at least one condenser and at least one expansion valve arranged in a refrigerant circuit, the method comprising the steps of: - obtaining a temperature, T out, of refrigerant leaving the evaporator, - obtaining, by at least one sensor (5, 6), a control parameter value relating to the vapour compression system, - controlling an opening degree of the expansion valve, on the basis of the obtained control parameter, and in order to reach a reference value for the control parameter, - detecting that at least one sensor (5, 6) used for obtaining the control parameter is malfunctioning, - calculating a reference temperature, T out, ref, based on previously obtained values of the temperature, T out, during a predefined previous time interval, and - subsequently controlling the opening degree of the expansion valve, on the basis of the obtained temperature, T out, and in order to reach the calculated reference temperature, T out, ref, of the refrigerant leaving the evaporator. - obtaining a temperature, T out, of refrigerant leaving the evaporator, - obtaining, by at least one sensor (5, 6), a control parameter value relating to the vapour compression system, - controlling an opening degree of the expansion valve, on the basis of the obtained control parameter, and in order to reach a reference value for the control parameter, - detecting that at least one sensor (5, 6) used for obtaining the control parameter is malfunctioning, - calculating a reference temperature, T out, ref, based on previously obtained values of the temperature, T out, during a predefined previous time interval, and - subsequently controlling the opening degree of the expansion valve, on the basis of the obtained temperature, T out, and in order to reach the calculated reference temperature, T out, ref, of the refrigerant leaving the evaporator.