mhurhangee/patent-ind-claim-en huggingface dataset:
An actuator for an oral aerosol inhalation device comprising: a housing adapted to receive an aerosol canister containing a pressurised medicament formulation, provided with a metering valve having a hollow valve stem , a mouthpiece portion terminating in a mouthpiece opening , a nozzle block defining a valve stem receptacle , an expansion chamber or sump , and an orifice ending in an aperture having an enlarging frusto-conical section to propel the aerosol formulation towards the mouthpiece opening , the frusto-conical section enlarging in the aerosol flow direction, wherein the longitudinal axis of the orifice in the nozzle block , aligned with the longitudinal axis of the mouthpiece portion, is located at an angle greater than 90° to the direction of the longitudinal axis of the hollow valve stem , characterized by the presence of a tubular element extending in the mouthpiece portion from the orifice aperture in a longitudinal axis aligned with the longitudinal axis of the actuator mouthpiece portion and coinciding with the orifice longitudinal axis. a housing adapted to receive an aerosol canister containing a pressurised medicament formulation, provided with a metering valve having a hollow valve stem , a mouthpiece portion terminating in a mouthpiece opening , a nozzle block defining a valve stem receptacle , an expansion chamber or sump , and an orifice ending in an aperture having an enlarging frusto-conical section to propel the aerosol formulation towards the mouthpiece opening , the frusto-conical section enlarging in the aerosol flow direction,
A nozzle for application of a setting resin into cells of a honeycomb core, the nozzle comprising a connector portion and an application head , wherein the connector portion is adapted to receive setting resin from a resin dispensing device and deliver the setting resin to the application head , and wherein the application head comprises: a) an exit hole , the exit hole being essentially circular, elliptical, or in the shape of a regular polygon; and b) a flange surrounding the exit hole , the flange having an outer perimeter that is essentially circular, essentially elliptical, or in the shape of a regular polygon, wherein the flange comprises a bottom surface which comprises a planar surface which planar surface has a minimum width of greater than 0.5 cm around the entirety of the exit hole and wherein the bottom surface of flange curves upward at its outer perimeter. a) an exit hole , the exit hole being essentially circular, elliptical, or in the shape of a regular polygon; and b) a flange surrounding the exit hole , the flange having an outer perimeter that is essentially circular, essentially elliptical, or in the shape of a regular polygon,
An analysis device for heating and combusting a sample, and for analyzing gas that is generated by heating and combusting the sample, the analysis device comprising: a gas analyzer for analyzing the gas; a heating furnace for holding the sample; an induced current generating mechanism for generating by electromagnetic induction an induced current in the sample; and a laser irradiation mechanism for irradiating laser light onto the sample, wherein the induced current generating mechanism and the laser irradiation mechanism are configured to act simultaneously on the sample in order to heat the sample for accelerated combustion of the sample, and in order to generate the gas to be analyzed; the heating furnace comprises a gas outflow path that is configured to guide the generated gas to the gas analyzer . a gas analyzer for analyzing the gas; a heating furnace for holding the sample; an induced current generating mechanism for generating by electromagnetic induction an induced current in the sample; and a laser irradiation mechanism for irradiating laser light onto the sample, wherein the induced current generating mechanism and the laser irradiation mechanism are configured to act simultaneously on the sample in order to heat the sample for accelerated combustion of the sample, and in order to generate the gas to be analyzed; the heating furnace comprises a gas outflow path that is configured to guide the generated gas to the gas analyzer .
A method of preparing a frozen biological sample, comprising the steps of - fixing the biological sample with a non-crosslinking fixative solution, - incubating the fixed biological sample in an aqueous solution comprising a cryoprotectant, and - freezing the cryoprotected biological sample, wherein the non-crosslinking fixative solution comprises at least one alcohol and one or more additives, wherein the one or more additives are selected from: a. a sugar, preferably wherein the sugar is selected from a monosaccharide and/or a disaccharide, and/or or a sugar alcohol, preferably wherein the sugar alcohol is selected from sorbitol, mannitol and/or dulcitol; b. a poly(oxyalkylene) polymer, preferably a poly(oxyethylene) polymer, more preferably polyethylene glycol (PEG), wherein optionally, the poly(oxyalkylene) polymer is comprised in the non-crosslinking fixative solution in a concentration selected from 1 to 20% (w/v), 2 to 15% (w/v) and 3 to 10% (w/v); c. a poly(oxyalkylene) polymer having a molecular weight that lies in a range selected from 100 to 10000, 150 to 5000, 200 to 1000 and 250 to 500, wherein preferably the poly(oxyalkylene) polymer is polyethylene glycol (PEG); d. diethyleneglycol monoethylether acetate (DEGMEA); and/or e. a C 2 to C 12 polyol, preferably a C 2 to C 12 diol and/or triol. - fixing the biological sample with a non-crosslinking fixative solution, - incubating the fixed biological sample in an aqueous solution comprising a cryoprotectant, and - freezing the cryoprotected biological sample, a. a sugar, preferably wherein the sugar is selected from a monosaccharide and/or a disaccharide, and/or or a sugar alcohol, preferably wherein the sugar alcohol is selected from sorbitol, mannitol and/or dulcitol; b. a poly(oxyalkylene) polymer, preferably a poly(oxyethylene) polymer, more preferably polyethylene glycol (PEG), wherein optionally, the poly(oxyalkylene) polymer is comprised in the non-crosslinking fixative solution in a concentration selected from 1 to 20% (w/v), 2 to 15% (w/v) and 3 to 10% (w/v); c. a poly(oxyalkylene) polymer having a molecular weight that lies in a range selected from 100 to 10000, 150 to 5000, 200 to 1000 and 250 to 500, wherein preferably the poly(oxyalkylene) polymer is polyethylene glycol (PEG); d. diethyleneglycol monoethylether acetate (DEGMEA); and/or e. a C 2 to C 12 polyol, preferably a C 2 to C 12 diol and/or triol.
An assembly for forming bonds on a web, the assembly comprising: an anvil ; a bonding device positioned adjacent the anvil and configured to interact with the anvil to form the bonds on the web; an actuator that enables adjustment of an orientation between the bonding device and the anvil ; a closed-loop control system configured to control operation of the actuator , the closed-loop control system configured to: monitor an operational parameter of the assembly indicative of interaction of the bonding device with the anvil ; determine whether the bonding device is parallel or substantially parallel with the anvil based on the operational parameter; and when the bonding device is not parallel or substantially parallel with the anvil , cause the actuator to adjust the orientation between the bonding device and the anvil . an anvil ; a bonding device positioned adjacent the anvil and configured to interact with the anvil to form the bonds on the web; an actuator that enables adjustment of an orientation between the bonding device and the anvil ; a closed-loop control system configured to control operation of the actuator , the closed-loop control system configured to: monitor an operational parameter of the assembly indicative of interaction of the bonding device with the anvil ; determine whether the bonding device is parallel or substantially parallel with the anvil based on the operational parameter; and when the bonding device is not parallel or substantially parallel with the anvil , cause the actuator to adjust the orientation between the bonding device and the anvil . monitor an operational parameter of the assembly indicative of interaction of the bonding device with the anvil ; determine whether the bonding device is parallel or substantially parallel with the anvil based on the operational parameter; and when the bonding device is not parallel or substantially parallel with the anvil , cause the actuator to adjust the orientation between the bonding device and the anvil .
Electropneumatic brake device of a rail vehicle, comprising an electronic wheel-slip-protection computer for maintaining the adhesion coefficient between the wheel and the rail by controlling wheel-slip-protection valves (2a to 2d) connected thereto and in each case associated with a brake cylinder (3a to 3d), wherein the wheel-slip-protection computer has an electrical input for the specification of a braking/deceleration set-point value (C soll ) and sensor means for the detection of vehicle condition variables relevant to braking, whose measured values are also transmitted to the input of the wheel-slip-protection computer , to enable the wheel-slip-protection computer also to be used for controlling the operating pressure of the service brake, characterised in that during an emergency braking operation the wheel-slip-protection computer ignores the set-point braking value (C soll ) specified by the central train control system and to enable the alternative use of a load-dependent substitute set-point value (T ist ) the wheel-slip-protection computer has an additional electrical input for the transmission of an actual load value.
Method for synthesizing 3-aminopropylalkoxysilanes of the general formula I H 2 N-CR 2 R 3 -CHR 1 -CH 2 - SiR 4 R 5 (OR 6 ) I, in which silazanes, selected from the general formulae IVa and IVb and mixtures thereof, are hydrosilylated in the presence of catalyst A, which contains compounds selected from rhodium and iridium compounds and mixtures thereof, and, for conversion to the 3-aminopropylalkoxysilanes of the general formula I, are reacted with alcohol of the general formula V R 6 -OH V, where R 1 to R 3 independently of one another are a hydrogen atom or a monovalent unsubstituted or substituted C 1 -C 20 hydrocarbon radical, where individual, non-adjacent methylene units in the hydrocarbon radical may be replaced by -O-, -CO-, -COO-, -OCO- or -OCOO-, -S- or N R x groups, and where the radicals may be bridged by hydrocarbon radicals, R 4 and R 5 independently of one another are a monovalent unsubstituted or substituted C 1 -C 20 hydrocarbon radical, where individual, non-adjacent methylene units in the hydrocarbon radical may be replaced by -O-, -CO-, -COO-, -OCO- or -OCOO-, -S- or N R x groups, and where the radicals may be bridged by hydrocarbon radicals, R 6 is a hydrocarbon radical having 1 to 8 carbon atoms, where non-adjacent carbon atoms may be replaced by oxygens, and R x is a monovalent unsubstituted or substituted C 1 -C 20 hydrocarbon radical, where individual, non-adjacent methylene units in the hydrocarbon radical may be replaced by -O-, -CO-, -COO-, -OCO- or -OCOO-, -S-groups, and where the radicals may be bridged by hydrocarbon radicals. R 1 to R 3 independently of one another are a hydrogen atom or a monovalent unsubstituted or substituted C 1 -C 20 hydrocarbon radical, where individual, non-adjacent methylene units in the hydrocarbon radical may be replaced by -O-, -CO-, -COO-, -OCO- or -OCOO-, -S- or N R x groups, and where the radicals may be bridged by hydrocarbon radicals, R 4 and R 5 independently of one another are a monovalent unsubstituted or substituted C 1 -C 20 hydrocarbon radical, where individual, non-adjacent methylene units in the hydrocarbon radical may be replaced by -O-, -CO-, -COO-, -OCO- or -OCOO-, -S- or N R x groups, and where the radicals may be bridged by hydrocarbon radicals, R 6 is a hydrocarbon radical having 1 to 8 carbon atoms, where non-adjacent carbon atoms may be replaced by oxygens, and R x is a monovalent unsubstituted or substituted C 1 -C 20 hydrocarbon radical, where individual, non-adjacent methylene units in the hydrocarbon radical may be replaced by -O-, -CO-, -COO-, -OCO- or -OCOO-, -S-groups, and where the radicals may be bridged by hydrocarbon radicals.
Wind turbine with a foundation and a tower , with multiple tower segments , placed on the foundation , wherein the foundation has a tower base which extends longitudinally and which is at least partially cast in the foundation , wherein the tower base consists of at least two precast concrete segments and in that a lower tower segment is tensioned together with the precast concrete segments of the tower base via tensioning rods, tensioning strands or tensioning cables , wherein the at least two precast concrete segments each comprise multiple through bores for receiving the tensioning rods, tensioning sheaths or tensioning cables , characterized by an anchor ring which is also embedded in the concrete of the foundation as part of the tower base and tensions first ends of the tensioning rods, tensioning strands or tensioning cables , wherein second ends of the tensioning rods are tensioned to a flange at the upper end of the tower base or to the lower end of the lower tower segment .
An internal combustion engine comprising a combustion chamber and a fuel injector for injecting an over-enriched fuel and air mixture to the combustion chamber of the internal combustion engine, comprising a hydrocarbon liquid fuel spray nozzle , at least one supply of a gaseous carrier , a fuel mixing chamber and an injector nozzle to the engine combustion chamber, and is configured such that, during operation, liquid fuel is supplied to the fuel mixing chamber through the hydrocarbon liquid fuel spray nozzle , and heated compressed gaseous carrier is supplied to the fuel mixing chamber through the supply of gaseous carrier , in the mixing chamber said fuel and said gaseous carrier are mixed and fuel is evaporated as a result of elevated temperature, and the mixture of evaporated fuel with the heated compressed gaseous carrier thus formed reaches the combustion chamber, through the injector nozzle , wherein it is further configured such that: • the heated compressed gaseous carrier is air or flue gas or water vapour or any combination thereof, at elevated pressure and temperature, and • the composition of the mixture in the injector is outside the combustibility range, above the upper combustibility limit. a hydrocarbon liquid fuel spray nozzle , at least one supply of a gaseous carrier , a fuel mixing chamber and an injector nozzle to the engine combustion chamber, and is configured such that, during operation, liquid fuel is supplied to the fuel mixing chamber through the hydrocarbon liquid fuel spray nozzle , and heated compressed gaseous carrier is supplied to the fuel mixing chamber through the supply of gaseous carrier , in the mixing chamber said fuel and said gaseous carrier are mixed and fuel is evaporated as a result of elevated temperature, and the mixture of evaporated fuel with the heated compressed gaseous carrier thus formed reaches the combustion chamber, through the injector nozzle , wherein it is further configured such that: • the heated compressed gaseous carrier is air or flue gas or water vapour or any combination thereof, at elevated pressure and temperature, and • the composition of the mixture in the injector is outside the combustibility range, above the upper combustibility limit. • the heated compressed gaseous carrier is air or flue gas or water vapour or any combination thereof, at elevated pressure and temperature, and • the composition of the mixture in the injector is outside the combustibility range, above the upper combustibility limit.
A composition for use in preventing and treating angiogenesis-related diseases selected from the group consisting of tumor growth and metastasis, diabetic retinopathy, senile macular degeneration, rheumatoid arthritis, psoriasis and cancer, comprising a peptide consisting of a sequence of amino acids Arg-Leu-Tyr-Glu, in which N-terminal L-Arg is acetylated or substituted with D-Arg as an active ingredient.
A flame-resistant fabric comprising staple yarns comprising intimately blended together, - 35-55 wt. % non-FR cellulosic fibers, - 30-45 wt. % modacrylic fibers, - < 20 wt. % non-flammable fibers, the non-flammable fibers being a blend of (i) para-aramid fibers and (ii) poly(amide-imide) fibers at least a portion of which comprises an energy absorbing additive which absorbs electromagnetic radiation in the wavelength range of 700-2000 nm, to form energy absorbing fibers, wherein - the staple yarns contain < 10 wt. % para-aramid fibers and 5-14 wt. % poly(amide-imide) fibers as the energy absorbing fibers, and - the fabric comprises < 14 wt. % of energy absorbing fibers, and has an arc resistance according to ASTM F1959/F1959M-14e1 of ≥ 0.164 J/cm 2 per g/m 2 (1.33 cal/cm 2 per oz/yd 2 ) of fabric. - 35-55 wt. % non-FR cellulosic fibers, - 30-45 wt. % modacrylic fibers, - < 20 wt. % non-flammable fibers, the non-flammable fibers being a blend of (i) para-aramid fibers and (ii) poly(amide-imide) fibers at least a portion of which comprises an energy absorbing additive which absorbs electromagnetic radiation in the wavelength range of 700-2000 nm, to form energy absorbing fibers, wherein - the staple yarns contain < 10 wt. % para-aramid fibers and 5-14 wt. % poly(amide-imide) fibers as the energy absorbing fibers, and - the fabric comprises < 14 wt. % of energy absorbing fibers, and has an arc resistance according to ASTM F1959/F1959M-14e1 of ≥ 0.164 J/cm 2 per g/m 2 (1.33 cal/cm 2 per oz/yd 2 ) of fabric.
A conductive textile assembly including: a textile substrate having a plurality of electrical conductors therein, the substrate including first and second opposing sides; a first flexible conductive shield or screen layer disposed over the first side of the textile substrate ; a second flexible conductive shield or screen layer disposed over the second side of the textile substrate ; and first and second non-conductive flexible spacer layers each disposed between a respective shield or screen layer and the textile substrate and being distinct layers of the assembly; wherein the textile substrate is a woven fabric and the plurality of electrical conductors are a part of the weave, the electrical conductors being disposed generally side by side. with a substantially uniform spacing to the shield or screen layer, and being disposed in co-planar relationship; wherein the first and second flexible conductive shield or screen layers are electrically insulated from the textile substrate ; the first and second spacer layers provide a substantially uniform dielectric gap between the conductors of the textile substrate and the first and second shield or screen layers over at least an operative section of the assembly; and wherein the first and second shield or screen layers form a Faraday cage operable to prevent ingress and/or egress of electromagnetic radiation to or from the conductive textile substrate. a textile substrate having a plurality of electrical conductors therein, the substrate including first and second opposing sides; a first flexible conductive shield or screen layer disposed over the first side of the textile substrate ; a second flexible conductive shield or screen layer disposed over the second side of the textile substrate ; and first and second non-conductive flexible spacer layers each disposed between a respective shield or screen layer and the textile substrate and being distinct layers of the assembly; wherein the textile substrate is a woven fabric and the plurality of electrical conductors are a part of the weave, the electrical conductors being disposed generally side by side. with a substantially uniform spacing to the shield or screen layer, and being disposed in co-planar relationship; wherein the first and second flexible conductive shield or screen layers are electrically insulated from the textile substrate ; the first and second spacer layers provide a substantially uniform dielectric gap between the conductors of the textile substrate and the first and second shield or screen layers over at least an operative section of the assembly; and wherein the first and second shield or screen layers form a Faraday cage operable to prevent ingress and/or egress of electromagnetic radiation to or from the conductive textile substrate.
Use of a kit of parts comprising means to measure levels of: 3-D-hydroxybutyrate, valine, creatine, citrate, lactate, and asparagine in a biofluid sample collected from a subject in prepuberty, to predict a subject in prepuberty of high blood level glucose or developing childhood-prediabetes in adolescence.
A wearable device , comprising: a wristband , comprising a first section of wristband with a first interface , and a second section of wristband with a second interface ; and a main body on the wristband and electrically connected to the first interface and the second interface , characterized in that the wearable device is configured such that, when the first interface is connected to a power supply and the second interface is not connected to a first terminal device, a chip in the main body determines that the wearable device is in a self-charging mode, the first interface is connected with a rechargeable battery inside the wearable device, and the main body is charged through the power supply, and wherein the power supply includes a power adapter, and when the first interface is connected to the power adapter and the second interface is connected to a second terminal device, the chip in the main body determines that the wearable device is in a terminal device charging mode, the first interface is electrically conducted with the second interface , and the second terminal device is charged via the wearable device through the power adapter. a wristband , comprising a first section of wristband with a first interface , and a second section of wristband with a second interface ; and a main body on the wristband and electrically connected to the first interface and the second interface , characterized in that the wearable device is configured such that, when the first interface is connected to a power supply and the second interface is not connected to a first terminal device, a chip in the main body determines that the wearable device is in a self-charging mode, the first interface is connected with a rechargeable battery inside the wearable device, and the main body is charged through the power supply, and wherein the power supply includes a power adapter, and when the first interface is connected to the power adapter and the second interface is connected to a second terminal device, the chip in the main body determines that the wearable device is in a terminal device charging mode, the first interface is electrically conducted with the second interface , and the second terminal device is charged via the wearable device through the power adapter.