mhurhangee/patent-ind-claim-en huggingface dataset:
Biomass furnace for combusting solid biomass, comprising: a combustion chamber (44, 44.1); a combustion gas collection region (46, 46.1); a chimney cap (50, 50.1) which is arranged above the combustion gas collection region, the chimney cap having a supply air connection (58, 58.1) and a combustion gas discharge line (56, 56.1) on a side facing away from the combustion gas collection region, characterised by a combustion gas duct which leads the combustion gas down from the combustion chamber (44, 44.1) before being introduced into the combustion gas collection region. a combustion chamber (44, 44.1); a combustion gas collection region (46, 46.1); a chimney cap (50, 50.1) which is arranged above the combustion gas collection region, the chimney cap having a supply air connection (58, 58.1) and a combustion gas discharge line (56, 56.1) on a side facing away from the combustion gas collection region, characterised by a combustion gas duct which leads the combustion gas down from the combustion chamber (44, 44.1) before being introduced into the combustion gas collection region.
A woven gauze fabric comprising: a surface layer and a back layer; wherein the surface layer and the back layer are directly and/or indirectly joined together; characterised in that the surface layer is formed of a hollow twisted yarn having a weight within the range of 0.94g / 100m to 1.57g / 100m, both inclusive; and in that the back layer is formed of a hollow twisted yarn having a weight within the range of 0.94g / 100m to 1.57g / 100m, both inclusive. a surface layer and a back layer; wherein the surface layer and the back layer are directly and/or indirectly joined together; characterised in that the surface layer is formed of a hollow twisted yarn having a weight within the range of 0.94g / 100m to 1.57g / 100m, both inclusive; and in that the back layer is formed of a hollow twisted yarn having a weight within the range of 0.94g / 100m to 1.57g / 100m, both inclusive.
A glove comprising a glove body configured to cover a hand of a wearer, wherein the glove body comprises a resin layer forming an outer surface of the glove characterized by a vapor perspiration suppressing layer as an innermost layer laminated on one surface of the resin layer to form an inner surface of the glove , the innermost layer is formed over the entire area of one surface of the resin layer , the innermost layer comprises a matrix resin and cellulose particles , at least some of the cellulose particles are at least partially exposed from the inner surface, the innermost layer includes 7 mass parts or more and 45 mass parts or less of the cellulose particles based on 100 mass parts of the matrix resin, and is formed as a non-foamed layer, and the cellulose particles have an average particle size of 10 μm or more and 45 μm or less. the glove body comprises a resin layer forming an outer surface of the glove characterized by a vapor perspiration suppressing layer as an innermost layer laminated on one surface of the resin layer to form an inner surface of the glove , the innermost layer is formed over the entire area of one surface of the resin layer , the innermost layer comprises a matrix resin and cellulose particles , at least some of the cellulose particles are at least partially exposed from the inner surface, the innermost layer includes 7 mass parts or more and 45 mass parts or less of the cellulose particles based on 100 mass parts of the matrix resin, and is formed as a non-foamed layer, and the cellulose particles have an average particle size of 10 μm or more and 45 μm or less.
A cleaning device including a fluid assembly arranged to produce a fluid beam , the fluid assembly including an enclosure with a fluid inlet port , an outlet orifice , a fluid flow path between the fluid inlet port and the outlet orifice , and a laser input port , and an optical assembly including: - a laser beam optic arrangement configured to direct a first laser beam through the laser input port and further through the outlet orifice and to focus the first laser beam inside the fluid beam ; and - a sensing arrangement configured to emit a sensing signal , characterized in that the sensing arrangement is configured to emit the sensing signal through the laser input port and further trough the outlet orifice to receive a reflected signal of the sensing signal reflected by the fluid beam , and to determine length data of the fluid beam based on the reflected signal , wherein the optical assembly is arranged to regulate the laser beam optic arrangement based on the determined length data in order to control the focus of the first laser beam . - a laser beam optic arrangement configured to direct a first laser beam through the laser input port and further through the outlet orifice and to focus the first laser beam inside the fluid beam ; and - a sensing arrangement configured to emit a sensing signal ,
An LED fixture comprising: - a plurality of LEDs , in use providing a light output, - a light sensor , characterised in that - the LED fixture further comprises a cover being provided with a plurality of different coatings of phosphor or phosphorous materials, each coating being arranged to substantially receive the light output of a subset of the plurality of LEDs such as to emit light having a different frequency or frequency spectrum, thereby enabling the generation of different colours by the LED fixture; - wherein the plurality of LEDs is arranged below the cover and, in use, is arranged to provide a substantially monochrome light output, - wherein the light sensor is arranged below the cover and is arranged to receive part of the substantially monochrome light output of the plurality of LEDs . - a plurality of LEDs , in use providing a light output, - a light sensor , - the LED fixture further comprises a cover being provided with a plurality of different coatings of phosphor or phosphorous materials, each coating being arranged to substantially receive the light output of a subset of the plurality of LEDs such as to emit light having a different frequency or frequency spectrum, thereby enabling the generation of different colours by the LED fixture; - wherein the plurality of LEDs is arranged below the cover and, in use, is arranged to provide a substantially monochrome light output, - wherein the light sensor is arranged below the cover and is arranged to receive part of the substantially monochrome light output of the plurality of LEDs .
An adhesive, comprising a) 6 to 15 wt.-% based on the total amount of the adhesive of one or more epoxy resins; b) 72 to 82 wt.-% based on the total amount of the adhesive of silver-coated particles having a silver content of 8 to 12 wt.-%, based on the total amount of the silver-coated particles; and c) 4 to 6 wt.-%, based on the total amount of the adhesive of one or more amine-epoxy adducts, comprising one or more functional groups, each derived from an alkyl-substituted nitrogen-containing heterocycle. a) 6 to 15 wt.-% based on the total amount of the adhesive of one or more epoxy resins; b) 72 to 82 wt.-% based on the total amount of the adhesive of silver-coated particles having a silver content of 8 to 12 wt.-%, based on the total amount of the silver-coated particles; and c) 4 to 6 wt.-%, based on the total amount of the adhesive of one or more amine-epoxy adducts, comprising one or more functional groups, each derived from an alkyl-substituted nitrogen-containing heterocycle.
An edible coating for the preservation of pieces of fruit formed by a polysaccharide based aqueous solution which is applied over the pieces of fruit, characterized in that the aqueous solution comprises carboxymethyl cellulose (CMC) as polysaccharide base of the aqueous solution, calcium ascorbate, citric acid and an antimicrobial agent, where the carboxymethyl cellulose has a viscosity of over 1500 mPa.s as measured for a 1% w/w aqueous CMC solution, using a Nahita 801 N/SC88808 viscometer, with a n° 2 spindle at 12 rpm à 21°C, and is at a low concentration of between 0.025% and 1% by weight relative to the total weight of the components of the aqueous solution, the calcium ascorbate is at a concentration of between 3% and 15% by weight relative to the total weight of the components of the aqueous solution and the citric acid is at a concentration of between 0.5% and 30% by weight relative to the total weight of the components of the aqueous solution, excluding the water.
A microfluidic device for conducting multiplex immunoassays to detect multiple target analytes in a liquid sample using a set of tags and anti-tags, wherein the device comprises an array of different anti-tags immobilised on a surface of a sensor for measuring a signal, wherein each anti-tag is arranged to immobilise a tagged antibody or tagged antigen thereby in use separating tagged immune complexes from the liquid phase affecting the signal measured; wherein the device comprises a sensor chamber for tagged immune complexes to form in the liquid phase, and the device comprises one or more detection zones comprising the array of different anti-tags for immobilising tagged immune complexes; wherein the device comprises a microfluidic delay channel between the sensor chamber and the detection zone(s) to increase the liquid phase incubation time of reagents that react to form tagged immune complexes before reaching the anti-tags; and wherein in use liquid comprising the tagged immune complexes flows or is fluidically driven from the sensor chamber to the detection zone(s). wherein the device comprises a sensor chamber for tagged immune complexes to form in the liquid phase, and the device comprises one or more detection zones comprising the array of different anti-tags for immobilising tagged immune complexes; wherein the device comprises a microfluidic delay channel between the sensor chamber and the detection zone(s) to increase the liquid phase incubation time of reagents that react to form tagged immune complexes before reaching the anti-tags; and wherein in use liquid comprising the tagged immune complexes flows or is fluidically driven from the sensor chamber to the detection zone(s).
A process cartridge , configured to be detachably installed onto a main body of an imaging device, comprising: a housing ; and a photosensitive drum arranged in the housing , wherein a drive coupler configured to receive a driving force from a drive head of the main body of the imaging device is provided at one end of the photosensitive drum , and wherein the housing comprises a first end plate and a second end plate respectively located at opposite ends of the housing ; the first end plate and/or the second end plate is provided with an installation guiding part protruding from the respective end plate ; wherein the installation guiding part is extendable and retractable and the installation guiding part is provided with a guiding slope (s1, s2), whereby the installation guiding part is configured to allow a photosensitive drum rotation axis (L1) to form an included angle (A) with respect to a drive head rotation axis (L2) in installing or detaching the process cartridge , or, configured to allow the photosensitive drum rotation axis (L1) to be not perpendicular to a preset installation direction of the process cartridge in installing or detaching the process cartridge . a housing ; and a photosensitive drum arranged in the housing , wherein a drive coupler configured to receive a driving force from a drive head of the main body of the imaging device is provided at one end of the photosensitive drum , and wherein the housing comprises a first end plate and a second end plate respectively located at opposite ends of the housing ; the first end plate and/or the second end plate is provided with an installation guiding part protruding from the respective end plate ; wherein the installation guiding part is extendable and retractable and the installation guiding part is provided with a guiding slope (s1, s2), whereby the installation guiding part is configured to allow a photosensitive drum rotation axis (L1) to form an included angle (A) with respect to a drive head rotation axis (L2) in installing or detaching the process cartridge , or, configured to allow the photosensitive drum rotation axis (L1) to be not perpendicular to a preset installation direction of the process cartridge in installing or detaching the process cartridge .
Method for operating a microwave device , the microwave device comprising a cavity , multiple microwave modules for providing microwaves into said cavity , each microwave module comprising a control unit (3.1) adapted to control the generation of microwaves, and a master control entity adapted to control the microwave modules , the method comprising the steps of: - providing multiple sets of operation parameters, each set of operation parameters being associated with a certain microwave module ; o synchronously transmitting, by the master control entity , the sets of operation parameters to the respective microwave modules and, by the microwave modules , immediately applying the set of operation parameters within the respective microwave module after receipt of said set of operation parameters; or, o by the master control entity , uploading the sets of operation parameters to the respective microwave modules and, by the microwave modules , applying the set of parameters within the respective microwave module after receipt of an acknowledge command or after expiry of a certain time period. - providing multiple sets of operation parameters, each set of operation parameters being associated with a certain microwave module ; o synchronously transmitting, by the master control entity , the sets of operation parameters to the respective microwave modules and, by the microwave modules , immediately applying the set of operation parameters within the respective microwave module after receipt of said set of operation parameters; or, o by the master control entity , uploading the sets of operation parameters to the respective microwave modules and, by the microwave modules , applying the set of parameters within the respective microwave module after receipt of an acknowledge command or after expiry of a certain time period. o synchronously transmitting, by the master control entity , the sets of operation parameters to the respective microwave modules and, by the microwave modules , immediately applying the set of operation parameters within the respective microwave module after receipt of said set of operation parameters; or, o by the master control entity , uploading the sets of operation parameters to the respective microwave modules and, by the microwave modules , applying the set of parameters within the respective microwave module after receipt of an acknowledge command or after expiry of a certain time period.
An ignition exciter system for igniting fuel in a gas turbine engine, the ignition exciter system comprising: a rechargeable energy source ; at least one pulse-forming network (116A-B) coupled to the rechargeable energy source and generating a stored energy waveform from energy in the rechargeable energy source ; at least one igniter plug (106A-B) coupled to the at least one pulse-forming network (116A-B) to receive the stored energy waveform and generating a spark in response to the received stored energy waveform; a silicon carbide discharge switch further comprising a gate, an anode and a cathode; and a switch driver electrically coupled to the silicon carbide discharge switch to apply a positive electrical triggering waveform to the anode with respect to the gate of the silicon carbide discharge switch so as to inductively switch the silicon carbide discharge switch to transition from a non-conducting state to a conducting state when voltage in the rechargeable energy source reaches a predetermined level for energy storage; wherein the anode and cathode of the silicon carbide discharge switch is connected in series with the rechargeable energy source selectively coupling the rechargeable energy source to the at least one pulse forming network (116A-B) in response to the positive electrical triggering waveform to effect the generating of the stored energy waveform, which is then received by the igniter plug (106A-B) to generate the spark. a rechargeable energy source ; at least one pulse-forming network (116A-B) coupled to the rechargeable energy source and generating a stored energy waveform from energy in the rechargeable energy source ; at least one igniter plug (106A-B) coupled to the at least one pulse-forming network (116A-B) to receive the stored energy waveform and generating a spark in response to the received stored energy waveform; a silicon carbide discharge switch further comprising a gate, an anode and a cathode; and a switch driver electrically coupled to the silicon carbide discharge switch to apply a positive electrical triggering waveform to the anode with respect to the gate of the silicon carbide discharge switch so as to inductively switch the silicon carbide discharge switch to transition from a non-conducting state to a conducting state when voltage in the rechargeable energy source reaches a predetermined level for energy storage; wherein the anode and cathode of the silicon carbide discharge switch is connected in series with the rechargeable energy source selectively coupling the rechargeable energy source to the at least one pulse forming network (116A-B) in response to the positive electrical triggering waveform to effect the generating of the stored energy waveform, which is then received by the igniter plug (106A-B) to generate the spark.
A compound for use in treating lung cancer, gastric cancer, esophageal cancer, or gastro-esophageal junction cancer, by administration in combination with radiation, wherein the compound is -2,3-dihydroxy-4-(2-(3-(trifluoromethylthio)phenyl)pyrazolo[1,5-a]pyrimidin-7-ylamino)cyclopentyl)methyl sulfamate (Compound 1) or a pharmaceutically acceptable salt thereof.
Afresh air module comprising: a housing , having a fresh air passage and a mounting port communicated with the fresh air passage , wherein the housing is provided with a protruding rib , extending along a circumferential direction of the mounting port and in an annular shape; and a filter screen assembly , wherein the filter screen assembly is slidably mounted in the fresh air passage through the mounting port , the filter screen assembly comprising a filter screen bracket and a filter screen mounted on the filter screen bracket , wherein the filter screen bracket comprises: a cover member , arranged on an end of the filter screen bracket , wherein the cover member is configured to sealingly cover the mounting port ; and wherein a peripheral edge of the cover member is provided with an annular flange extending outwards; wherein a surface of the annular flange facing the filter screen is abutted against the protruding rib ; and wherein the cover member is plate-shaped. a housing , having a fresh air passage and a mounting port communicated with the fresh air passage , wherein the housing is provided with a protruding rib , extending along a circumferential direction of the mounting port and in an annular shape; and a filter screen assembly , wherein the filter screen assembly is slidably mounted in the fresh air passage through the mounting port , the filter screen assembly comprising a filter screen bracket and a filter screen mounted on the filter screen bracket , wherein the filter screen bracket comprises: a cover member , arranged on an end of the filter screen bracket , wherein the cover member is configured to sealingly cover the mounting port ; and wherein a peripheral edge of the cover member is provided with an annular flange extending outwards; wherein a surface of the annular flange facing the filter screen is abutted against the protruding rib ; and wherein the cover member is plate-shaped. a cover member , arranged on an end of the filter screen bracket , wherein the cover member is configured to sealingly cover the mounting port ; and wherein a peripheral edge of the cover member is provided with an annular flange extending outwards; wherein a surface of the annular flange facing the filter screen is abutted against the protruding rib ; and wherein the cover member is plate-shaped.
An optical component of a lighting apparatus, at least a portion of the optical component being formed of a composite material comprising a polymeric matrix material and a particulate material that contributes a color filtering effect to visible light passing through the composite material, the particulate material comprising a neodymium compound containing Nd 3+ ions, wherein the neodymium compound and the polymeric matrix material have refractive indices within 0.1 of each other in the visible light region or wherein the particulate material and the polymeric matrix material have refractive indices within 0.1 of each other in the visible light region.
Secondary clarification unit for a waste water purification apparatus , comprising a tank in which an inlet and an outlet are formed, and a filter element arranged in the container for clarifying a fluid flowing from the inlet to the outlet , and a purification unit is provided, which is configured to clean the filter element , characterised in that the filter element is configured as an arrangement of a plurality of bodies , wherein the bodies are elastic, and the cleaning unit is a volume reduction unit which is configured, for cleaning the filter element , to reduce a volume within the tank that is available to the filter element .
A method for forming a connecting pad, comprising: providing a substrate ; sequentially forming a conductive layer , a first pattern definition layer and a second pattern definition layer on a surface of the substrate ; sequentially forming a first group of patterns, a second group of patterns, and a third group of patterns intersecting with each other at 120° on the second pattern definition layer , an intersection portion of the three groups of patterns forming a hexagonal pattern definition structure on the second pattern definition layer ; transferring the pattern definition structure downward, and etching away a portion of the first pattern definition layer , such that the remaining first pattern definition layer forms a columnar structure, wherein a bottom of the columnar structure is circular in shape under an action of an etching load effect; and etching the conductive layer by the remaining first pattern definition layer as a mask, such that the remaining conductive layer forms a circular connecting pad . providing a substrate ; sequentially forming a conductive layer , a first pattern definition layer and a second pattern definition layer on a surface of the substrate ; sequentially forming a first group of patterns, a second group of patterns, and a third group of patterns intersecting with each other at 120° on the second pattern definition layer , an intersection portion of the three groups of patterns forming a hexagonal pattern definition structure on the second pattern definition layer ; transferring the pattern definition structure downward, and etching away a portion of the first pattern definition layer , such that the remaining first pattern definition layer forms a columnar structure, wherein a bottom of the columnar structure is circular in shape under an action of an etching load effect; and etching the conductive layer by the remaining first pattern definition layer as a mask, such that the remaining conductive layer forms a circular connecting pad .