mhurhangee/patent-ind-claim-en huggingface dataset:
A passenger seat comprising: a tray table assembly comprising: an upper cover ; a lower cover ; and a support structure disposed between the upper cover and the lower cover , characterised in that : the support structure comprising a plurality of upper protrusions extending toward and in contact with an inner surface of the upper cover and a plurality of lower protrusions extending toward and in contact with an inner surface of the lower cover , wherein the support structure provides structural rigidity to the tray table assembly and is formed of a metallic material so as to dissipate heat. a tray table assembly comprising: an upper cover ; a lower cover ; and a support structure disposed between the upper cover and the lower cover , characterised in that : the support structure comprising a plurality of upper protrusions extending toward and in contact with an inner surface of the upper cover and a plurality of lower protrusions extending toward and in contact with an inner surface of the lower cover , an upper cover ; a lower cover ; and a support structure disposed between the upper cover and the lower cover , characterised in that : the support structure comprising a plurality of upper protrusions extending toward and in contact with an inner surface of the upper cover and a plurality of lower protrusions extending toward and in contact with an inner surface of the lower cover , wherein the support structure provides structural rigidity to the tray table assembly and is formed of a metallic material so as to dissipate heat.
An aqueous curable binder composition comprising a carbohydrate compound, a first cross linker selected from carboxyl function bearing compounds which form esters with the carbohydrate compound and a second cross linker, the second cross linker being different from the first and being capable of undergoing radical polymerization, and possibly a free radical initiator; wherein the carboxyl bearing compound is selected from monomeric polycarboxylic acids, and wherein the second cross linker capable of undergoing radical polymerization is selected from acrylamides and methacrylamides, acrylates, acrylic acids and their salts, acrylonitrile, bisphenol acrylics, carbohydrate monomers, fluorinated acrylics, maleimide, polyfunctional acrylics, and mixtures thereof.
An etching method, comprising: forming trenches in a to-be-etched structure ; forming (S3) a dielectric layer (11; 204) in the trenches; etching (S5) the dielectric layer (11; 204) in the trenches by an etching process; and controlling (S6) at least an etching temperature of the etching process by continuously varying said temperature while a polymer is formed on side surface of the to-be-etched structure, wherein during the etching process of the dielectric layer (11; 204), the polymer undergoes: a deposition stage, having a deposition rate of the polymer greater than an etch rate of the polymer; and a removal stage, having the deposition rate less than the etch rate, wherein the material of the to-be etched structure is silicon nitride or silicon oxynitride and the material of the dielectric layer (11; 204) is silicon oxide and an etching gas for etching the dielectric layer (11; 204) includes one or more gases selected form CF 4 , C 3 F 8 and C 4 F 8 , and wherein a relationship between an etching temperature T and an etching time t is: T = T 0 + T 1 sin 2 π t / t 0 , wherein T 0 is an equilibrium temperature, T 1 is a maximum value of the etching temperature deviating from the equilibrium temperature T 0 , and t 0 is a duration of an etching circle, the equilibrium temperature being the temperature at which the deposition rate of the polymer and the etch rate of said polymer are equal, the deposition stage and the removal stage forming an etching circle. forming trenches in a to-be-etched structure ; forming (S3) a dielectric layer (11; 204) in the trenches; etching (S5) the dielectric layer (11; 204) in the trenches by an etching process; and controlling (S6) at least an etching temperature of the etching process by continuously varying said temperature while a polymer is formed on side surface of the to-be-etched structure, wherein during the etching process of the dielectric layer (11; 204), the polymer undergoes: a deposition stage, having a deposition rate of the polymer greater than an etch rate of the polymer; and a removal stage, having the deposition rate less than the etch rate, wherein the material of the to-be etched structure is silicon nitride or silicon oxynitride and the material of the dielectric layer (11; 204) is silicon oxide and an etching gas for etching the dielectric layer (11; 204) includes one or more gases selected form CF 4 , C 3 F 8 and C 4 F 8 , and wherein a relationship between an etching temperature T and an etching time t is: T = T 0 + T 1 sin 2 π t / t 0 , a deposition stage, having a deposition rate of the polymer greater than an etch rate of the polymer; and a removal stage, having the deposition rate less than the etch rate, wherein T 0 is an equilibrium temperature, T 1 is a maximum value of the etching temperature deviating from the equilibrium temperature T 0 , and t 0 is a duration of an etching circle, the equilibrium temperature being the temperature at which the deposition rate of the polymer and the etch rate of said polymer are equal, the deposition stage and the removal stage forming an etching circle.
A compressor comprising a housing enclosing movable components, a body provided in the housing , on which movable components such as a cylinder and a vibration eliminator are collected, a face surface provided on the body , a cylinder bore provided on the face surface , a valve plate gasket mounted so as to be disposed on the cylinder bore , a valve plate placed on the valve plate gasket , enabling a circulating fluid to be sucked and pumped, a cylinder head placed on the valve plate , and a cylinder head gasket placed between the cylinder head and the valve plate , characterized by a pressure chamber being provided within the cylinder head and being isolated from the inner volume of the cylinder head by at least one wall and by a discharge tube ferrule having a first port facing the inner volume of the cylinder head and a second port , whereby the second port fits the vibration eliminator that is inserted into the pressure chamber by means of a gasket placed on a cut-out provided on the cylinder head .
An injection molding machine comprising: a movable part arranged on an injection apparatus base which is movable with respect to a molding machine frame ; a hydraulic actuator fixed to the movable part ; a hydraulic pump unit fixed to said movable part so as to supply a generated fluid-pressure to the hydraulic actuator ; and a hydraulic passage provided to said movable part so as to connect said hydraulic pump unit and said hydraulic actuator , wherein said hydraulic actuator , said hydraulic pump unit and said hydraulic passage move with a movement of said movable part , characterized in that said movable part is an injection apparatus, and said hydraulic actuator is a hydraulic cylinder which is a drive source of a moving mechanism that moves the injection apparatus , and wherein said hydraulic pump unit is turnable together with the injection apparatus relative to the injection apparatus base . a movable part arranged on an injection apparatus base which is movable with respect to a molding machine frame ; a hydraulic actuator fixed to the movable part ; a hydraulic pump unit fixed to said movable part so as to supply a generated fluid-pressure to the hydraulic actuator ; and a hydraulic passage provided to said movable part so as to connect said hydraulic pump unit and said hydraulic actuator , wherein said hydraulic actuator , said hydraulic pump unit and said hydraulic passage move with a movement of said movable part , characterized in that said movable part is an injection apparatus, and said hydraulic actuator is a hydraulic cylinder which is a drive source of a moving mechanism that moves the injection apparatus , and wherein said hydraulic pump unit is turnable together with the injection apparatus relative to the injection apparatus base .
A composition for use in treating acute kidney injury comprising a drag reducing polymer in an amount which when administered intravenously to a subject afflicted with said injury can provide a concentration of between 1 and 100 ppm of the drag reducing polymer in the blood of the subject.
A device for conveying bulk material, comprising - a movable conveying member - and a outer wall which is stationary in relation to the conveying member; - wherein - the device is connected to a further processing chamber for receiving and further processing the bulk material , and - a dynamic seal is deployed for providing a seal with respect to the pressure difference between the further processing chamber and areas situated upstream in the process, characterized in that a sealing element of the dynamic seal is made from a sealant in the form of a material pattern or material seal, which may be regenerated during the operation of the conveying device, the sealing element being provided from the partial flow of the bulk material to be conveyed or from a partial flow of the bulk material to be conveyed and a separate sealant supply. - a movable conveying member - and a outer wall which is stationary in relation to the conveying member; - wherein - the device is connected to a further processing chamber for receiving and further processing the bulk material , and - a dynamic seal is deployed for providing a seal with respect to the pressure difference between the further processing chamber and areas situated upstream in the process, characterized in that a sealing element of the dynamic seal is made from a sealant in the form of a material pattern or material seal, which may be regenerated during the operation of the conveying device, the sealing element being provided from the partial flow of the bulk material to be conveyed or from a partial flow of the bulk material to be conveyed and a separate sealant supply.
A hybrid work machine comprising an engine , a generator motor driven by the engine , an electrical storage device that supplies and receives electric power to and from the generator motor , a hydraulic pump driven by the engine and the generator motor , hydraulic actuators driven by a hydraulic oil delivered from the hydraulic pump , operating members used to operate the hydraulic actuators , and a controller that controls the hydraulic actuators in accordance with operating amounts of the operating members , characterized in that , when a plurality of specific operations defined as predetermined ones among a plurality of work operations performed by the hybrid work machine are performed under condition of a degree of tendency to deterioration of the electrical storage device becoming higher, the controller determines in accordance with the operating amounts of the operating members whether the specific operations are performed, and reduces, in accordance with a determination result, speeds of the hydraulic actuators corresponding to the specific operations at rates preset for the specific operations depending on the degree of tendency to deterioration of the electrical storage device , the rates being the same.
A card formed by bonding layers with each other by pressing comprising: a substrate ; an upper layer that has an outline larger than an outline of the substrate and is disposed above the substrate ; and a lower layer that has an outline larger than the outline of the substrate and is disposed below the substrate ; and a thickness adjustment layer provided in a substrate outer region (S1, S201, S301, S401, S501, S601, S701, S801, S901, S1001, S1101) that is a region between the upper layer and the lower layer and in an outer side of the outline of the substrate , the thickness adjustment layer being provided by printing on at least one layer among layers forming the card and adjusting thickness in the substrate outer region (S1, S201, S301, S401, S501, S601, S701, S801, S901, S1001, S1101). a substrate ; an upper layer that has an outline larger than an outline of the substrate and is disposed above the substrate ; and a lower layer that has an outline larger than the outline of the substrate and is disposed below the substrate ; and a thickness adjustment layer provided in a substrate outer region (S1, S201, S301, S401, S501, S601, S701, S801, S901, S1001, S1101) that is a region between the upper layer and the lower layer and in an outer side of the outline of the substrate , the thickness adjustment layer being provided by printing on at least one layer among layers forming the card and adjusting thickness in the substrate outer region (S1, S201, S301, S401, S501, S601, S701, S801, S901, S1001, S1101).
A process for the hydroconversion of heavy oil products which comprises the following steps: • Supplying to a slurry-phase hydroconversion section a Molybdenum-containing catalyst precursor, heavy oil products and a hydrogen-containing stream; • Conducting a hydroconversion reaction producing a reaction effluent which is subsequently separated at high pressure and high temperature into a vapour phase and a slurry phase; • Subsequently sending the separated vapour phase to a gas treatment section with the function of separating a liquid fraction from the hydrogen-containing gas; • Subsequently sending the slurry phase to a separation section which has the function of separating the Vacuum Gas Oil (VGO), Heavy Vacuum Gas Oil (HVGO), Light Vacuum Gas Oil (LVGO), Atmospheric Gas Oil (AGO), from a stream of heavy organic products which contains asphaltenes, unconverted feed, catalyst and solid formed during the hydroconversion reaction; • Recycling a part of said heavy organic products to the reaction section and forming a purge stream with the remainder; • Heating said purge stream at a temperature greater than or equal to 185°C and not above 220°C and, subsequently; • Subjecting said heated purge to settling by lowering the temperature in a progressive and controlled manner up to the minimum temperature of 100°C, without shaking the purge, so as to form a light phase, called clarified component, and a heavy phase, called cake, as a function of density; • Recycling the clarified component to the slurry-phase hydroconversion section. • Supplying to a slurry-phase hydroconversion section a Molybdenum-containing catalyst precursor, heavy oil products and a hydrogen-containing stream; • Conducting a hydroconversion reaction producing a reaction effluent which is subsequently separated at high pressure and high temperature into a vapour phase and a slurry phase; • Subsequently sending the separated vapour phase to a gas treatment section with the function of separating a liquid fraction from the hydrogen-containing gas; • Subsequently sending the slurry phase to a separation section which has the function of separating the Vacuum Gas Oil (VGO), Heavy Vacuum Gas Oil (HVGO), Light Vacuum Gas Oil (LVGO), Atmospheric Gas Oil (AGO), from a stream of heavy organic products which contains asphaltenes, unconverted feed, catalyst and solid formed during the hydroconversion reaction; • Recycling a part of said heavy organic products to the reaction section and forming a purge stream with the remainder; • Heating said purge stream at a temperature greater than or equal to 185°C and not above 220°C and, subsequently; • Subjecting said heated purge to settling by lowering the temperature in a progressive and controlled manner up to the minimum temperature of 100°C, without shaking the purge, so as to form a light phase, called clarified component, and a heavy phase, called cake, as a function of density; • Recycling the clarified component to the slurry-phase hydroconversion section.
An inspection system comprising: a push cable ; an inspection camera for capturing video or image data relating to one or more images from within a pipe or other cavity, the inspection camera coupled to the push cable ; and a smart cable storage drum for removably storing the push cable and inspection camera , the smart cable storage drum comprising a rotary hub around which the push cable is configured to wind and unwind during storage and use; characterised in that the inspection system comprises a slip ring integral with the rotary hub or configured to be inserted into a cavity formed by at least part of the rotary hub, wherein the slip ring comprises: electronics coupled to an output of the camera to compress the captured video or image data from the camera; and a wireless transceiver module disposed within the smart cable storage drum to send the compressed video or image data wirelessly to one or more remote computing devices and receive control data for camera operation from the one or more remote computing devices. a push cable ; an inspection camera for capturing video or image data relating to one or more images from within a pipe or other cavity, the inspection camera coupled to the push cable ; and a smart cable storage drum for removably storing the push cable and inspection camera , the smart cable storage drum comprising a rotary hub around which the push cable is configured to wind and unwind during storage and use; characterised in that the inspection system comprises a slip ring integral with the rotary hub or configured to be inserted into a cavity formed by at least part of the rotary hub, wherein the slip ring comprises: electronics coupled to an output of the camera to compress the captured video or image data from the camera; and a wireless transceiver module disposed within the smart cable storage drum to send the compressed video or image data wirelessly to one or more remote computing devices and receive control data for camera operation from the one or more remote computing devices. electronics coupled to an output of the camera to compress the captured video or image data from the camera; and a wireless transceiver module disposed within the smart cable storage drum to send the compressed video or image data wirelessly to one or more remote computing devices and receive control data for camera operation from the one or more remote computing devices.
An analysis device, comprising: a classification unit configured to classify messages included in a text log output from a system by compressing the messages to types, and give an ID set for each type to each of the classified messages; a creation unit configured to create, based on dates of occurrence attached to the messages, a matrix indicating an appearance distribution of the messages in the text log for each one of a plurality of predetermined durations for each ID; a pattern extraction unit configured to extract a plurality of patterns, which are combinations of the IDs, from the matrix created by the creation unit ; a removal unit configured to remove a frequent pattern of the patterns from the matrix, wherein it is determined whether an element included in a frequent pattern is a principal element; a determination unit configured to calculate a degree of importance for each element included in each of the patterns, and determines whether the degree of importance is equal to or higher than a predetermined threshold; and an information extraction unit configured to extract, from the text log, predetermined information on an element whose degree of importance has been determined by the determination unit to be equal to or higher than the predetermined threshold. a classification unit configured to classify messages included in a text log output from a system by compressing the messages to types, and give an ID set for each type to each of the classified messages; a creation unit configured to create, based on dates of occurrence attached to the messages, a matrix indicating an appearance distribution of the messages in the text log for each one of a plurality of predetermined durations for each ID; a pattern extraction unit configured to extract a plurality of patterns, which are combinations of the IDs, from the matrix created by the creation unit ; a removal unit configured to remove a frequent pattern of the patterns from the matrix, wherein it is determined whether an element included in a frequent pattern is a principal element; a determination unit configured to calculate a degree of importance for each element included in each of the patterns, and determines whether the degree of importance is equal to or higher than a predetermined threshold; and an information extraction unit configured to extract, from the text log, predetermined information on an element whose degree of importance has been determined by the determination unit to be equal to or higher than the predetermined threshold.
A process for the extraction of inulin, which consists of: a) comminuting plant material b) adding a solvent to the comminuted plant material c) subjecting the mixture of comminuted plant material and solvent to an ultrahigh temperature treatment at 95 - 150°C over a period of 5 - 300 seconds. d) separating solid plant material from the liquid phase. a) comminuting plant material b) adding a solvent to the comminuted plant material c) subjecting the mixture of comminuted plant material and solvent to an ultrahigh temperature treatment at 95 - 150°C over a period of 5 - 300 seconds. d) separating solid plant material from the liquid phase.
A therapy system controller configured to: operate a negative-pressure source to maintain negative pressure at a sealed space around a tissue interface; operate a hyperoxic fluid source to deliver hyperoxic fluid to the sealed space; maintain the sealed space within a first range of negative pressure from -75 mmHg to -200 mmHg for a first interval; and maintain the sealed space within a second range of negative pressure from -5 mmHg to - 60 mmHg for a second interval. operate a negative-pressure source to maintain negative pressure at a sealed space around a tissue interface; operate a hyperoxic fluid source to deliver hyperoxic fluid to the sealed space; maintain the sealed space within a first range of negative pressure from -75 mmHg to -200 mmHg for a first interval; and maintain the sealed space within a second range of negative pressure from -5 mmHg to - 60 mmHg for a second interval.
A composition which is a topical formulation, comprising uniform, rigid, spherical nanoporous calcium phosphate particles, wherein the particles have an average particle size of 4 μm or less, preferably 3 μm or less, most preferably 2 μm or less, wherein the particles are complexed with an active agent such that the active agent is bound to the particles and an amount of 30% or less of the active agent is present in dissociated form in the composition, and wherein the composition is suitable to deliver the particles of the composition in a target location which is the stratum corneum of a subject's skin when the composition is applied to a topical region of the subject such as a topical location selected from a mucosal location or a keratinized skin surface.