mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication, comprising: obtaining , by a first wireless communication device, an uplink control channel multiplex configuration; receiving , by the first wireless communication device from a second wireless communication device , an uplink grant indicating a frequency interlace , wherein the frequency interlace comprises a plurality of resource blocks spaced apart from each other by at least one other resource block in a shared radio frequency band , wherein the uplink control channel multiplex configuration indicates a configuration for multiplexing uplink signals from multiple wireless communication devices in the frequency interlace comprising multiplexing uplink control information, UCI, data using pre-discrete Fourier transform, pre-DFT, orthogonal cover code, OCC, and multiplexing DMRS using different cyclic shifts for each of the multiple wireless communication devices; and transmitting , by the first wireless communication device to the second wireless communication device, a first uplink control channel signal in one or more resource blocks of the frequency interlace based on the uplink control channel multiplex configuration. obtaining , by a first wireless communication device, an uplink control channel multiplex configuration; receiving , by the first wireless communication device from a second wireless communication device , an uplink grant indicating a frequency interlace , wherein the frequency interlace comprises a plurality of resource blocks spaced apart from each other by at least one other resource block in a shared radio frequency band , wherein the uplink control channel multiplex configuration indicates a configuration for multiplexing uplink signals from multiple wireless communication devices in the frequency interlace comprising multiplexing uplink control information, UCI, data using pre-discrete Fourier transform, pre-DFT, orthogonal cover code, OCC, and multiplexing DMRS using different cyclic shifts for each of the multiple wireless communication devices; and transmitting , by the first wireless communication device to the second wireless communication device, a first uplink control channel signal in one or more resource blocks of the frequency interlace based on the uplink control channel multiplex configuration.
A temperature sensor comprising: a pressure sensor comprising: a light guide , a cavity at a distal end of the light guide, a diaphragm forming a wall of the cavity and being configured to deflect with applied pressure, a fibre Bragg grating for coarse temperature measurement, in which thermal expansion or contraction of the fibre Bragg grating causes a shift of the Bragg wavelength, and a detector to detect changes in light reflection due to deflection of the diaphragm; the temperature sensor further comprising a chamber containing at least the distal end of the pressure sensor and a fluid which changes volume in response to temperature change sufficient to change the pressure applied on the diaphragm , the chamber being closed on one end; and a processor configured to process pressure data and/or light reflection data, and to generate an output indicating temperature; wherein the pressure sensor enters the chamber from the side of the chamber opposite said closed side, and wherein the pressure sensor is sealed to the internal surface of said chamber so as to form a closed volume filled with said fluid . a pressure sensor comprising: a light guide , a cavity at a distal end of the light guide, a diaphragm forming a wall of the cavity and being configured to deflect with applied pressure, a fibre Bragg grating for coarse temperature measurement, in which thermal expansion or contraction of the fibre Bragg grating causes a shift of the Bragg wavelength, and a detector to detect changes in light reflection due to deflection of the diaphragm; the temperature sensor further comprising a chamber containing at least the distal end of the pressure sensor and a fluid which changes volume in response to temperature change sufficient to change the pressure applied on the diaphragm , the chamber being closed on one end; and a light guide , a cavity at a distal end of the light guide, a diaphragm forming a wall of the cavity and being configured to deflect with applied pressure, a fibre Bragg grating for coarse temperature measurement, in which thermal expansion or contraction of the fibre Bragg grating causes a shift of the Bragg wavelength, and a detector to detect changes in light reflection due to deflection of the diaphragm; the temperature sensor further comprising a chamber containing at least the distal end of the pressure sensor and a fluid which changes volume in response to temperature change sufficient to change the pressure applied on the diaphragm , the chamber being closed on one end; and a processor configured to process pressure data and/or light reflection data, and to generate an output indicating temperature; wherein the pressure sensor enters the chamber from the side of the chamber opposite said closed side, and wherein the pressure sensor is sealed to the internal surface of said chamber so as to form a closed volume filled with said fluid .
A kit including a cranial drill system comprising a first drilling element and a second drilling element , the second drilling element for drilling into the skull , wherein the second drilling element comprises a guide which during drilling with the second element can extend into and is a close fit in an opening formed by the first drilling element ; and characterised in that the kit further comprises an implantable instrument for locating within the opening in the skull formed using the cranial drill system such that the implantable instrument is implanted into the brain , the cranial drill system arranged to form the opening with a profile corresponding to a profile of the implantable instrument .
A method for producing an alcohol from a carboxylic acid as a raw material, comprising hydrogenating a carboxylic acid with a catalyst, wherein the catalyst comprises Co metal as an essential component and one or more elements selected from the group consisting of Zr, Y, La, Ce, Si, Al, Sc, V and Mo as a first co-catalyst component, and has 20% or more of cubic phase in the crystal phase of the Co metal, wherein the catalyst is a reduced catalyst and has an oxide film formed on the surface to stabilize the catalyst after the reduction, wherein the oxide film is formed by placing the catalyst in a flow of an inert gas containing 0.1 to 5% by volume of oxygen for 1 to 24 hours at 0 to 200°C, and wherein the percentage of the cubic phase in the crystal phase of the Co metal is determined from the ratio of an intensity of the first peak of the cubic phase Ic to an intensity of the first peak of the hexagonal phase Ih in an X-ray crystal diffraction spectrum and calculated by the following formula : percentage of the cubic phase % = 100 × Ic / Ic + Ih .
An in-cell touch liquid crystal display panel, comprising a first substrate , second substrate , and a liquid crystal layer provided between the first substrate and the second substrate, wherein the touch liquid crystal display panel is an In-Plane Switching display panel, the first substrate is an array substrate and comprises a plurality of pixel units, wherein each of the plurality of pixel units comprises a pixel electrode , a common electrode and a conductive player , each of the plurality of pixel units comprises an opaque region of said pixel unit and a transparent region of said pixel unit, and the opaque region of said pixel unit surrounds the transparent region of said pixel unit; wherein the common electrode is disposed above the pixel electrode through an insulating layer , and the conductive layer is deposited on and electrically connected in parallel to the common electrode characterised in that the conductive layer is a transparent conductive layer and is deposited in the transparent region of the pixel unit.
A guide element for electrical wires (102.1, 102.2, 102.3, 102.4) in a cable having at least four guide tracks (12.1, 12.2, 12.3, 12.4) for in each case one electrical wire of the cable, wherein the guide tracks run in such a manner, that at a first end of the guide element a change of place of at least two wires results with respect to a second end of the guide element opposite the first end, characterized in that the guide element converts a star quad arrangement of the wires into an arrangement of parallel pairs, wherein the guide tracks are formed at a first end of the guide element on the top right, bottom right, top left and bottom left, wherein the guide tracks are formed in such a manner, that the change of place of a right wire to a left wire and a left wire to a right wire or of a top wire to a bottom wire and a bottom wire to a top wire results. the guide element converts a star quad arrangement of the wires into an arrangement of parallel pairs, wherein the guide tracks are formed at a first end of the guide element on the top right, bottom right, top left and bottom left, wherein the guide tracks are formed in such a manner, that the change of place of a right wire to a left wire and a left wire to a right wire or of a top wire to a bottom wire and a bottom wire to a top wire results.
Autonomous industrial truck , in particular an industrial truck for picking, which for supporting the industrial truck on a carriageway (FB) has a running gear , wherein the running gear is disposed on a running gear chassis and the industrial truck has a support chassis , characterized in that the support chassis is provided with supporting means (7a-7d), wherein the support chassis relative to the running gear chassis is adjustable between a raised position in which the supporting means (7a-7d) are raised from the carriageway (FB) and a lowered position in which the supporting means (7a-7d) are lowered onto the carriageway (FB).
A therapeutic kit comprising a syringe barrel, a vial having a cap and a base, and a container for holding the syringe barrel and the vial, wherein the container comprises: a first member configured to releasably hold the syringe barrel; a second member configured to releasably hold the vial by its base in an upright position when the container is in an open configuration, wherein the second member is coupled to the first member by a first hinge ; and a third member coupled to the second member by a second hinge , wherein the container is configured such that a longitudinal axis of the syringe barrel is approximately parallel to a longitudinal axis of the vial when the container is in a closed position, and wherein the longitudinal axis of the syringe barrel is approximately perpendicular to the longitudinal axis of the vial when the container is in its open configuration, wherein the container is also configured such that a user may couple the syringe barrel to the cap of the vial without first releasing the vial from the second member, and wherein the container is further configured to provide stability to the syringe barrel when the syringe barrel is coupled to the cap of the vial while the vial is releasably held in the upright position. a first member configured to releasably hold the syringe barrel; a second member configured to releasably hold the vial by its base in an upright position when the container is in an open configuration, wherein the second member is coupled to the first member by a first hinge ; and a third member coupled to the second member by a second hinge , wherein the container is configured such that a longitudinal axis of the syringe barrel is approximately parallel to a longitudinal axis of the vial when the container is in a closed position, and wherein the longitudinal axis of the syringe barrel is approximately perpendicular to the longitudinal axis of the vial when the container is in its open configuration, wherein the container is also configured such that a user may couple the syringe barrel to the cap of the vial without first releasing the vial from the second member, and wherein the container is further configured to provide stability to the syringe barrel when the syringe barrel is coupled to the cap of the vial while the vial is releasably held in the upright position.
A polycarbodiimide composition comprising: a reaction product of polyisocyanate having a primary isocyanate group and alcohols, wherein the polycarbodiimide composition includes an urethane group, a carbodiimide group and a uretonimine group, and in an infrared absorption spectrum, the intensity ratio (IR CI /IR UI+U ) of absorbance IR CI at or near 2120 cm -1 due to stretching vibration of the carbodiimide group relative to absorbance IR UI+U at or near 1720 cm -1 due to stretching vibration of the uretonimine group and urethane group is 1.5 or more and 4.5 or less, wherein the intensity ratio (IR CI /IR UI+U ) is measured by the ATR (attenuated total reflection) method on an IR measurement apparatus Frontier FT-IR in a wave number range of 4000 to 400 cm -1 at a resolving power of 4 cm -1 after organic solvent used in the reaction has been distilled off from the polycarbodiimide composition, and the equivalent ratio (NCO/OH) of the isocyanate group of polyisocyanate relative to the hydroxyl group of the alcohols is more than 2 and 16 or less. a reaction product of polyisocyanate having a primary isocyanate group and alcohols, wherein the polycarbodiimide composition includes an urethane group, a carbodiimide group and a uretonimine group, and in an infrared absorption spectrum, the intensity ratio (IR CI /IR UI+U ) of absorbance IR CI at or near 2120 cm -1 due to stretching vibration of the carbodiimide group relative to absorbance IR UI+U at or near 1720 cm -1 due to stretching vibration of the uretonimine group and urethane group is 1.5 or more and 4.5 or less, wherein the intensity ratio (IR CI /IR UI+U ) is measured by the ATR (attenuated total reflection) method on an IR measurement apparatus Frontier FT-IR in a wave number range of 4000 to 400 cm -1 at a resolving power of 4 cm -1 after organic solvent used in the reaction has been distilled off from the polycarbodiimide composition, and the equivalent ratio (NCO/OH) of the isocyanate group of polyisocyanate relative to the hydroxyl group of the alcohols is more than 2 and 16 or less.
A product based on an aluminum alloy comprising, in percentage by weight, 4.0 to 4.6% by weight of Cu, 0.7 to 1.2% by weight of Li, 0.5 to 0.65% by weight of Mg, 0.10 to 0.20% by weight of Zr, 0.15 to 0.30% by weight of Ag, 0.25 to 0.45% by weight of Zn, 0.05 to 0.35% by weight of Mn, at most 0.20% by weight of Fe + Si, at least one element selected from Cr, Sc, Hf, V and Ti, the amount of said element, if selected, being from 0.05 to 0.3% by weight for Cr and for Sc, 0.05 to 0.5% by weight for Hf and for V and from 0.01 to 0.15% by weight for Ti, other elements at most 0.05% by weight each and 0.15% by weight in total, the remainder being aluminum. 4.0 to 4.6% by weight of Cu, 0.7 to 1.2% by weight of Li, 0.5 to 0.65% by weight of Mg, 0.10 to 0.20% by weight of Zr, 0.15 to 0.30% by weight of Ag, 0.25 to 0.45% by weight of Zn, 0.05 to 0.35% by weight of Mn, at most 0.20% by weight of Fe + Si, at least one element selected from Cr, Sc, Hf, V and Ti, the amount of said element, if selected, being from 0.05 to 0.3% by weight for Cr and for Sc, 0.05 to 0.5% by weight for Hf and for V and from 0.01 to 0.15% by weight for Ti, other elements at most 0.05% by weight each and 0.15% by weight in total, the remainder being aluminum.
A method for making an electrode for an energy storage device comprising the steps of: a) providing powder materials including active material particles, conductive material particles and binder material; b) mixing all the powder materials together, including active materials in a working range of 70%-97%, conductive material additives in a working range of 0-10%, and the binder in a working range of 2-20%; c) performing a binder activation step by adding and mixing solvent to the powder mixture, including a working solids range of 50-90%; d) performing a binder deposition step by high speed mixing, of all the mixed materials using a high-speed blender or an industrial high speed mixer: e) performing a film making step by pressing the mixed materials into a sheet or a free standing film; and f) laminating the sheet or film on to a treated or non-treated current collector to form the electrode, wherein all percentages above equal a weight percent, wherein the solvent is selected from alcohols, in particular ethanol and methanol, glycols, acetone and DMC; provided that said method is neither a conventional extrusion process, nor a conventional coating process, nor a conventional dry process. a) providing powder materials including active material particles, conductive material particles and binder material; b) mixing all the powder materials together, including active materials in a working range of 70%-97%, conductive material additives in a working range of 0-10%, and the binder in a working range of 2-20%; c) performing a binder activation step by adding and mixing solvent to the powder mixture, including a working solids range of 50-90%; d) performing a binder deposition step by high speed mixing, of all the mixed materials using a high-speed blender or an industrial high speed mixer: e) performing a film making step by pressing the mixed materials into a sheet or a free standing film; and f) laminating the sheet or film on to a treated or non-treated current collector to form the electrode, wherein the solvent is selected from alcohols, in particular ethanol and methanol, glycols, acetone and DMC; provided that said method is neither a conventional extrusion process, nor a conventional coating process, nor a conventional dry process.
The use of a compound B for limiting the development of microbes and/or eliminating microbes on a main surface of a substrate, wherein: - compound B is an organosilane compound grafted on the surface of said substrate, the grafting of which forms a coating C on said substrate, - compound B comprises a polyoxyalkylene group and at least one silicon atom bearing at least one hydrolyzable group. - compound B is an organosilane compound grafted on the surface of said substrate, the grafting of which forms a coating C on said substrate, - compound B comprises a polyoxyalkylene group and at least one silicon atom bearing at least one hydrolyzable group.
An electrically tunable Fabry-Perot interferometer, comprising - a substrate , including a portion defining an optical area, - a first mirror structure on the substrate , - a second, movable mirror structure , whereby the first and second mirror structures comprise respective first and second mirrors which are substantially parallel to each other, and each of the first and second mirror extend along the optical area; - a Fabry-Perot cavity between the first and second mirrors, - electrodes for electrical control of the distance between the mirrors, characterised in that - at least one mirror includes oppositely disposed mirror layers with an intermediate gap , the gap defining an intermediate mirror layer between the oppositely disposed mirror layers, the interferometer comprising a plurality of necks extending between the oppositely disposed mirror layers , in the intermediate mirror layer, the necks for maintaining a constant width of the gap defining the intermediate mirror layer, the necks covering only a small part, such as 1-10%, of the optical area in order to avoid significant attenuation of the interferometer, wherein the necks are formed from remaining sacrificial layer silicon oxide, the sacrificial layer etched through etching holes, the etching holes being distributed throughout the mirror. - a substrate , including a portion defining an optical area, - a first mirror structure on the substrate , - a second, movable mirror structure , whereby the first and second mirror structures comprise respective first and second mirrors which are substantially parallel to each other, and each of the first and second mirror extend along the optical area; - a Fabry-Perot cavity between the first and second mirrors, - electrodes for electrical control of the distance between the mirrors, characterised in that - at least one mirror includes oppositely disposed mirror layers with an intermediate gap , the gap defining an intermediate mirror layer between the oppositely disposed mirror layers, the interferometer comprising a plurality of necks extending between the oppositely disposed mirror layers , in the intermediate mirror layer, the necks for maintaining a constant width of the gap defining the intermediate mirror layer, the necks covering only a small part, such as 1-10%, of the optical area in order to avoid significant attenuation of the interferometer, wherein the necks are formed from remaining sacrificial layer silicon oxide, the sacrificial layer etched through etching holes, the etching holes being distributed throughout the mirror.
A bilayer comprising: a first layer of vanadium dioxide that undergoes a rutile-to-monoclinic structural phase transition at a first structural transition temperature; and a second layer of vanadium dioxide adjacent to the first layer of vanadium dioxide, wherein the second layer of vanadium dioxide undergoes a rutile-to-monoclinic structural phase transition at a second structural transition temperature that is higher than the first structural transition temperature, characterized in that the second layer of vanadium dioxide has a metallic monoclinic phase at a temperature between the first structural transition temperature and the second structural transition temperature. a first layer of vanadium dioxide that undergoes a rutile-to-monoclinic structural phase transition at a first structural transition temperature; and a second layer of vanadium dioxide adjacent to the first layer of vanadium dioxide, wherein the second layer of vanadium dioxide undergoes a rutile-to-monoclinic structural phase transition at a second structural transition temperature that is higher than the first structural transition temperature, characterized in that the second layer of vanadium dioxide has a metallic monoclinic phase at a temperature between the first structural transition temperature and the second structural transition temperature.