mhurhangee/patent-ind-claim-en huggingface dataset:
Alkaline post-foaming composition for protection against fire and/or heat, has a propellant ingredient of inert gas 0.5-6% by weight, alkali and/or alkaline earth metal silicate, as a fire-resistant component to protect against fire and/or heat, less than 75% by weight; solvent medium as water; characterized in that it has a booster gas or gas mixture component of the propellant gas that contains aliphatic hydrocarbons in addition to the inert gas, with atmospheric boiling point is under 20 ° C and vapor pressure at 20 ° C is between 1-5 bar (abs) added, in the amount of 0.1-10% by weight; and contains further fatty acids and/or fatty alcohols and/or their salts, and/or esters, and/or aldehydes, and/or amides thereof, as a carrier material, 0.5 to 20 % by weight, suitable for the capture of at least a portion of propellant gas or mixture of gases, and furthermore it supplemented with up to 18% by weight of foam enhancement component made of organic or inorganic soap-forming base, said organic soap-forming base of foam enhancement component consisting of triethanolamine and/or diethanolamine and/or monoethanolamine and/or morpholine and/or iso-propanol amine, and/or amino methyl propanol, and/or aminomethyl-propanediol, and said inorganic soap-forming base of foam enhancement component consisting of sodium hydroxide and/or potassium hydroxide.
A user equipment comprising: a transceiver that is configured to: receive, from a network equipment, system information for performing cell reselection, the system information including a cell list and priority information, wherein the cell list includes an identifier of a cell connected to an evolved packet core, EPC, or an identifier of a cell connected to a 5G core, 5GC, wherein the cell corresponding to the identifier is a serving cell or a neighbour cell of the serving cell, and wherein the priority information indicates that a frequency associated with 5GC has a higher priority than a frequency associated with EPC, or the frequency associated with 5GC has the same priority as the frequency associated with EPC, wherein the system information further includes a threshold value, a time interval, an offset value, and/or a network type of the neighbour cell, and wherein: the user equipment is configured to use the threshold value when reselecting towards a higher priority cell; to apply the time interval when the neighbour cell is evaluated for camping; and to apply the offset value to the cell connected to the 5GC; the transceiver is configured to receive a signal from the neighbour cell; and the user equipment further comprises a processor that is configured to: perform wireless signal strength measurement for the neighbour cell in response to the priority information indicating the frequency associated with 5GC has a higher priority than the frequency associated with EPC; and enable the user equipment to be camped on the neighbour cell in response to the signal strength measurement for the neighbour cell is not less than the threshold value during the time interval. the user equipment is configured to use the threshold value when reselecting towards a higher priority cell; to apply the time interval when the neighbour cell is evaluated for camping; and to apply the offset value to the cell connected to the 5GC; the transceiver is configured to receive a signal from the neighbour cell; and the user equipment further comprises a processor that is configured to: perform wireless signal strength measurement for the neighbour cell in response to the priority information indicating the frequency associated with 5GC has a higher priority than the frequency associated with EPC; and enable the user equipment to be camped on the neighbour cell in response to the signal strength measurement for the neighbour cell is not less than the threshold value during the time interval. perform wireless signal strength measurement for the neighbour cell in response to the priority information indicating the frequency associated with 5GC has a higher priority than the frequency associated with EPC; and enable the user equipment to be camped on the neighbour cell in response to the signal strength measurement for the neighbour cell is not less than the threshold value during the time interval.
A gauging instrument adapted for mounting on a nozzle of a tank, said nozzle provided with a tri-clamp flange , said instrument comprising an attachment collar with an opening configured to be aligned with the nozzle and to be secured by means of an annular clamping device ; wherein said attachment collar includes: an annular sealing surface , characterized in that said attachment collar includes: an annular abutment surface located radially outside said sealing surface and configured to abut an outer periphery of the tank nozzle, and a ridge located radially outside said abutment surface; and in that the gauging instrument further comprises a sealing gasket fitted radially inside said abutment surface; such that, when the gauging instrument is mounted on a tri-clamp flange of a tank nozzle, said ridge surrounds the outer periphery of the tri-clamp flange to thereby ensure radial alignment, said annular abutment surface abuts the periphery of the tank nozzle to ensure a precisely defined axial relation, and the sealing gasket is sandwiched between said sealing surface and the tri-clamp flange . said instrument comprising an attachment collar with an opening configured to be aligned with the nozzle and to be secured by means of an annular clamping device ; wherein said attachment collar includes: an annular sealing surface , characterized in that said attachment collar includes: an annular abutment surface located radially outside said sealing surface and configured to abut an outer periphery of the tank nozzle, and a ridge located radially outside said abutment surface; and in that the gauging instrument further comprises a sealing gasket fitted radially inside said abutment surface; such that, when the gauging instrument is mounted on a tri-clamp flange of a tank nozzle, said ridge surrounds the outer periphery of the tri-clamp flange to thereby ensure radial alignment, said annular abutment surface abuts the periphery of the tank nozzle to ensure a precisely defined axial relation, and the sealing gasket is sandwiched between said sealing surface and the tri-clamp flange . an annular sealing surface , characterized in that said attachment collar includes: an annular abutment surface located radially outside said sealing surface and configured to abut an outer periphery of the tank nozzle, and a ridge located radially outside said abutment surface; and in that the gauging instrument further comprises a sealing gasket fitted radially inside said abutment surface; such that, when the gauging instrument is mounted on a tri-clamp flange of a tank nozzle, said ridge surrounds the outer periphery of the tri-clamp flange to thereby ensure radial alignment, said annular abutment surface abuts the periphery of the tank nozzle to ensure a precisely defined axial relation, and the sealing gasket is sandwiched between said sealing surface and the tri-clamp flange .
A device for evaluation of hemostasis, comprising: first, second, third, and fourth test chambers each configured to receive a test sample of blood, each test chamber comprising a respective reagent or combination of reagents that interact with the test sample of blood received therein; and wherein each test chamber further comprises a respective sound focusing apparatus positioned to focus sound into the test chamber, wherein each sound focusing apparatus is a lens assembly sealed over each of the test chambers, such that each of the first, second, third and fourth test chambers is configured to be interrogated to determine a hemostasis parameter of the test samples, and wherein the interrogation comprises measurement of at least one viscoelastic property of the respective test sample. first, second, third, and fourth test chambers each configured to receive a test sample of blood, each test chamber comprising a respective reagent or combination of reagents that interact with the test sample of blood received therein; and wherein each test chamber further comprises a respective sound focusing apparatus positioned to focus sound into the test chamber, wherein each sound focusing apparatus is a lens assembly sealed over each of the test chambers, such that each of the first, second, third and fourth test chambers is configured to be interrogated to determine a hemostasis parameter of the test samples, and wherein the interrogation comprises measurement of at least one viscoelastic property of the respective test sample.
An ostomy appliance with a gas release valve, comprising: an ostomy appliance lumenal sidewall forming part of an enclosure for a stoma and having an aperture passing through said sidewall; a valve member crossing most of the way through said sidewall aperture and including: a stopper positioned to block gas outflow through said aperture , and a control member operable from the exterior of said ostomy appliance to unblock said aperture , wherein said valve member comprises a connecting member connecting said stopper to said control member across said aperture , said stopper comprises an expanded region for pressing a hole of said sidewall aperture to seal it, characterized in that said stopper , said control member , and said connecting member are integrally formed; and said control member comprises an elastic region which acts as a return spring. an ostomy appliance lumenal sidewall forming part of an enclosure for a stoma and having an aperture passing through said sidewall; a valve member crossing most of the way through said sidewall aperture and including: a stopper positioned to block gas outflow through said aperture , and a control member operable from the exterior of said ostomy appliance to unblock said aperture , wherein said valve member comprises a connecting member connecting said stopper to said control member across said aperture , said stopper comprises an expanded region for pressing a hole of said sidewall aperture to seal it, characterized in that said stopper , said control member , and said connecting member are integrally formed; and said control member comprises an elastic region which acts as a return spring. a stopper positioned to block gas outflow through said aperture , and a control member operable from the exterior of said ostomy appliance to unblock said aperture , wherein said valve member comprises a connecting member connecting said stopper to said control member across said aperture , said stopper comprises an expanded region for pressing a hole of said sidewall aperture to seal it, characterized in that said stopper , said control member , and said connecting member are integrally formed; and said control member comprises an elastic region which acts as a return spring.
Hydrogen discharge system for a truck , this system comprising : - a pipe provided with at least one discharge opening , - a deflector , that is rotatably mounted with respect to the pipe and that includes a vent , for venting hydrogen exiting through the discharge opening, characterized in that the system further includes a balancing weight secured to the deflector , so as to maintain the deflector in a configuration wherein the vent is facing upwards with respect to the ground, in order to always discharge hydrogen upwards relative to the ground. - a pipe provided with at least one discharge opening , - a deflector , that is rotatably mounted with respect to the pipe and that includes a vent , for venting hydrogen exiting through the discharge opening,
A suspension of gas-filled microvesicles in a physiologically acceptable liquid carrier, said microvesicles having a stabilizing envelope comprising a phospholipid, a saturated fatty acid and an unsaturated fatty acid, wherein the molar ratio between the saturated and the unsaturated fatty acid is from 2.5:1 to 1:8.
A non-volatile storage apparatus, comprising: a memory structure comprising a word line layer (WLL0-WLL47), and a plurality of non-volatile memory cells (MC1-MC5) and isolation areas , which are used to separate blocks of the memory structure into sub-blocks along a bit line direction; and a control circuit connected to the memory structure , characterised in that : the control circuit is configured to program different memory cells to different final targets for a common data state based on the distance from the memory cells to the nearest isolation area . a memory structure comprising a word line layer (WLL0-WLL47), and a plurality of non-volatile memory cells (MC1-MC5) and isolation areas , which are used to separate blocks of the memory structure into sub-blocks along a bit line direction; and a control circuit connected to the memory structure , characterised in that : the control circuit is configured to program different memory cells to different final targets for a common data state based on the distance from the memory cells to the nearest isolation area .
A method for managing air quality, comprising: one or more processors: receiving sensor data comprising a plurality of air quality parameters for an environment, wherein the sensor data is generated by one or more environment quality monitoring devices located in the environment; predicting an adverse air quality event based on the sensor data; and automatically controlling one or more devices to mitigate the adverse air quality event; wherein the method further comprises generating an air quality score based on at least a portion of the air quality parameters, a plurality of weighted factors being applied to the portion of the air quality parameters, and wherein the adverse air quality event is based at least in part on the air quality score. receiving sensor data comprising a plurality of air quality parameters for an environment, wherein the sensor data is generated by one or more environment quality monitoring devices located in the environment; predicting an adverse air quality event based on the sensor data; and automatically controlling one or more devices to mitigate the adverse air quality event; wherein the method further comprises generating an air quality score based on at least a portion of the air quality parameters, a plurality of weighted factors being applied to the portion of the air quality parameters, and wherein the adverse air quality event is based at least in part on the air quality score.
A pharmaceutical composition comprising: an amphiphilic emulsifier in an amount of 10-15% (w/v) of the pharmaceutical composition; a lipid component in an amount of 10-40% (w/v) of the pharmaceutical composition; histidine or histidine-containing peptide at a final concentration of 0.5-20 mM; sodium ions at the final concentration of 70-160 mM; and a polar liquid carrier, wherein said amphiphilic emulsifier forms free-moving micelles having a lipophilic core in said polar liquid carrier, said micelles have diameters in the range of 2 to 300 nm and wherein said pharmaceutical composition is free of haemoglobin and fluorocarbon, for use in a method for treating a condition related to hypovolemia. an amphiphilic emulsifier in an amount of 10-15% (w/v) of the pharmaceutical composition; a lipid component in an amount of 10-40% (w/v) of the pharmaceutical composition; histidine or histidine-containing peptide at a final concentration of 0.5-20 mM; sodium ions at the final concentration of 70-160 mM; and a polar liquid carrier, wherein said amphiphilic emulsifier forms free-moving micelles having a lipophilic core in said polar liquid carrier, said micelles have diameters in the range of 2 to 300 nm and wherein said pharmaceutical composition is free of haemoglobin and fluorocarbon, for use in a method for treating a condition related to hypovolemia.
An interior insulation system with moisture control for an exterior building wall , said system comprising: a first mineral wool insulation element adapted for abutting the interior surface of the external wall ; a second mineral wool insulation element abutting said first insulation element ; a vapour barrier covering the interior surface of the second insulation element ; a support structure below the first and second insulation elements and supporting said first and second insulation elements ; characterised in that the support structure comprises a gutter profile having a cavity with an upper opening and at least one ventilation opening, and wherein a third mineral wool insulation element is provided in at least a portion of said cavity . a first mineral wool insulation element adapted for abutting the interior surface of the external wall ; a second mineral wool insulation element abutting said first insulation element ; a vapour barrier covering the interior surface of the second insulation element ; a support structure below the first and second insulation elements and supporting said first and second insulation elements ; characterised in that the support structure comprises a gutter profile having a cavity with an upper opening and at least one ventilation opening, and wherein a third mineral wool insulation element is provided in at least a portion of said cavity .
A molecular sieve having, in its calcined form, an X-ray diffraction pattern including the peaks listed in the following table: 2-Theta d -Spacing, nm Relative Intensity 7.80 ± 0.30 1.133 W 9.02 ± 0.30 0.979 VS 9.78 ± 0.30 0.904 M 15.69 ± 0.30 0.564 S 16.72 ± 0.30 0.530 W 18.28 ± 0.30 0.485 VS 21.04 ± 0.30 0.422 W 23.53 ± 0.30 0.378 M 26.22 ± 0.30 0.340 VS 27.36 ± 0.30 0.326 W.
A rubber composition of a diene rubber comprising an emulsion polymerized styrene butadiene rubber: E-SBR and a solution polymerized styrene butadiene rubber: S-SBR each having a glass transition temperature: Tg of -25°C or higher measured by a differential scanning calorimetry according to JIS K7121-2012, and a polymer: P having a lower Tg than Tg of the emulsion polymerized styrene butadiene rubber and the solution polymerized styrene butadiene rubber, wherein a ratio: (E-SBR + S-SBR)/P of the sum of the E-SBR and the S-SBR in terms of a part by weight to the polymer: P having a lower Tg in terms of a part by weight satisfies 7/3 to 9/1, and a molecular weight distribution: Mw/Mn of either polymer having a higher Tg out of the E-SBR and the S-SBR satisfies 2.5 or less, and the polymer: P having a lower Tg than Tg of the emulsion polymerized styrene butadiene rubber and the solution polymerized styrene butadiene rubber is selected from a natural rubber: NR and/ or a butadiene rubber: BR.
An electro-acoustic driver, comprising: a housing having a cylindrical shape and a housing axis; a bobbin having an outer surface, a substantially planar surface at an end of the bobbin, and a bobbin axis that is substantially coaxial with the housing axis, the bobbin disposed inside the housing and configured to move along the bobbin axis; an acoustic diaphragm secured to the substantially planar surface at the end of the bobbin; and a compliant suspension surrounding the acoustic diaphragm and secured to the acoustic diaphragm and the housing, wherein the bobbin includes one or more of (a) legs extending from the outer surface to the substantially planar surface, and (b) a plurality of through holes in the substantially planar surface, wherein the substantially planar surface is fixed directly to a back surface of the diaphragm. a housing having a cylindrical shape and a housing axis; a bobbin having an outer surface, a substantially planar surface at an end of the bobbin, and a bobbin axis that is substantially coaxial with the housing axis, the bobbin disposed inside the housing and configured to move along the bobbin axis; an acoustic diaphragm secured to the substantially planar surface at the end of the bobbin; and a compliant suspension surrounding the acoustic diaphragm and secured to the acoustic diaphragm and the housing, wherein the bobbin includes one or more of (a) legs extending from the outer surface to the substantially planar surface, and (b) a plurality of through holes in the substantially planar surface, wherein the substantially planar surface is fixed directly to a back surface of the diaphragm.
A fiber optic MEMS microphone, comprising; • An optical fiber cable, • A MEMS device integrated at the end of the optical fiber cable, wherein the MEMS device features a membrane coated with optically reflective material that reflects an incident laser light and comprising air holes that transmit the incident laser light; • A photodiode chip placed on top of the MEMS device and electrically wired to the SIGNAL and GND pads of the MEMS device, for biasing the MEMS device; • A laser diode for providing a power adjustable laser light beam; wherein the MEMS device is capable of reflecting part of the incident laser light from the membrane back to the optical fiber, for detection of the membrane displacement via phase modulation or intensity modulation of the incident laser light, whereas allowing the remaining part of the incident laser light to be transmitted through the membrane onto the photodiode chip, for the generation of voltage across the photodiode chip, wherein the MEMS device is thus adapted to be biased at different voltage values by adjusting the laser light beam power. • An optical fiber cable, • A MEMS device integrated at the end of the optical fiber cable, wherein the MEMS device features a membrane coated with optically reflective material that reflects an incident laser light and comprising air holes that transmit the incident laser light; • A photodiode chip placed on top of the MEMS device and electrically wired to the SIGNAL and GND pads of the MEMS device, for biasing the MEMS device; • A laser diode for providing a power adjustable laser light beam;
Method for producing a component from a curable material, wherein a new layer of the material is printed in periodically recurring steps in a 3D printing process onto a layer located thereunder having lower reinforcing elements which protrude above the top of this new layer , wherein after each layer has been printed, upper reinforcing elements are connected to the lower reinforcing elements so as to extend said lower reinforcing elements and to form the lower reinforcing elements of the subsequent layer, characterized in that a printhead has no recess but a central region , which is designed to be flexible such that the reinforcing elements protruding from the two subjacent strands of one layer conform flexibly to the inside of the printhead when the printhead travels over, wherein the flexible design of the printhead is carried out by selecting a suitable material in the region of the central region , for example by a plastics material, silicone material or rubber material.
A composite powder for use in the negative electrode of a battery, whereby the composite powder comprises composite particles, whereby the composite particles comprise a matrix material and silicon, whereby the composite particles have a volumetric particle size distribution having a d10 and a d90, characterised in that , over at least part of the size range from d10 to d90, the composite particles have a size-dependent silicon content, with a positive correlation between the particle size and the silicon content, whereby a fine fraction of the composite powder has an average particle size D1 and a silicon content S1, whereby a coarse fraction of the composite powder has an average particle size D2 and a silicon content S2, whereby a size dependence factor F is defined as F=(S2-S1)/(D2-D1), whereby the value of the size dependence factor F is at least 0.04 wt% silicon/μm, whereby S1 and S2 are measured by means of X-Ray fluorescence, whereby D1 is defined as the d50-value of the volumetric particle size distribution of the fine fraction as measured by laser diffraction and whereby D2 is defined as the d50-value of the volumetric particle size distribution of the coarse fraction as measured by laser diffraction.