mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a sheet-type fiber-reinforced resin molding material, comprising: a step of coating a paste containing a thermosetting resin on a first sheet transported in a predetermined direction; a step of cutting a separated continuous fiber bundle at an interval with a cutter so as to produce cut fiber bundles and spreading the cut fiber bundles on the paste; and a step of impregnating the thermosetting resin among filaments of the cut fiber bundles by laminating a second sheet with the coated paste on the first sheet with the fiber bundles spread thereon and by compressing the paste and the cut fiber bundles sandwiched between the first sheet and the second sheet wherein the separated continuous fiber bundle has separated portions and unseparated portions due to being prepared by piercing an unseparated continuous fiber bundle intermittently with a series of a plurality of blades, aligned at predetermined intervals in a width direction of the unseparated continuous fiber bundle, such that partially unseparated portions are formed among the plurality of separated fiber bundles, and wherein both the condition specified in formula below and the condition specified in formula below are satisfied: 1 < a / L 0.9 ≦ a / a + b < 1 wherein in formula and , "a" is a length of the separated portion, "b" is a length of the unseparated portion, and "L" is the interval. a step of coating a paste containing a thermosetting resin on a first sheet transported in a predetermined direction; a step of cutting a separated continuous fiber bundle at an interval with a cutter so as to produce cut fiber bundles and spreading the cut fiber bundles on the paste; and a step of impregnating the thermosetting resin among filaments of the cut fiber bundles by laminating a second sheet with the coated paste on the first sheet with the fiber bundles spread thereon and by compressing the paste and the cut fiber bundles sandwiched between the first sheet and the second sheet wherein the separated continuous fiber bundle has separated portions and unseparated portions due to being prepared by piercing an unseparated continuous fiber bundle intermittently with a series of a plurality of blades, aligned at predetermined intervals in a width direction of the unseparated continuous fiber bundle, such that partially unseparated portions are formed among the plurality of separated fiber bundles, and wherein both the condition specified in formula below and the condition specified in formula below are satisfied: 1 < a / L 0.9 ≦ a / a + b < 1 wherein in formula and , "a" is a length of the separated portion, "b" is a length of the unseparated portion, and "L" is the interval.
A transmitting device comprising: an audio encoding unit configured to generate an audio stream including coded data of a predetermined number of pieces of object content; a transmitting unit configured to transmit a container of a predetermined format including the audio stream; wherein each of the predetermined number of pieces of object content belongs to any of a predetermined number of content groups, wherein the content groups include a dialog language, a sound effect, and spoken subtitles; and an information inserting unit configured to insert information indicating a range within which sound pressure is allowed to increase and decrease for each content group into a layer of the audio stream and/or a layer of the container. an audio encoding unit configured to generate an audio stream including coded data of a predetermined number of pieces of object content; a transmitting unit configured to transmit a container of a predetermined format including the audio stream; wherein each of the predetermined number of pieces of object content belongs to any of a predetermined number of content groups, wherein the content groups include a dialog language, a sound effect, and spoken subtitles; and an information inserting unit configured to insert information indicating a range within which sound pressure is allowed to increase and decrease for each content group into a layer of the audio stream and/or a layer of the container.
A method for manufacturing an electrically conductive substance coated aluminum material, comprising: an aluminum material ; an organic substance layer without carbon particles formed on a surface of the aluminum material ; and an interposing layer formed in at least one part of regions of the surface of the aluminum material between the aluminum material and the organic substance layer and including a carbide of aluminum, the organic substance layer including a carbon precursor; wherein the method comprises: a resin layer formation step of forming a resin layer on a surface of the aluminum material ; and an organic substance layer formation step of forming the organic substance layer by placing the aluminum material having the resin layer formed thereon in an enclosed space , wherein a hydrocarbon-containing substance is present, and heating the aluminum material and the hydrocarbon-containing substance, whereby the surface of the aluminum material is coated with the organic substance layer , whereby the interposing layer is formed between the aluminum material and the organic substance layer , and whereby the resin layer becomes the organic substance layer with electrical conductivity. an aluminum material ; an organic substance layer without carbon particles formed on a surface of the aluminum material ; and an interposing layer formed in at least one part of regions of the surface of the aluminum material between the aluminum material and the organic substance layer and including a carbide of aluminum, the organic substance layer including a carbon precursor; wherein the method comprises: a resin layer formation step of forming a resin layer on a surface of the aluminum material ; and an organic substance layer formation step of forming the organic substance layer by placing the aluminum material having the resin layer formed thereon in an enclosed space , wherein a hydrocarbon-containing substance is present, and heating the aluminum material and the hydrocarbon-containing substance, whereby the surface of the aluminum material is coated with the organic substance layer , whereby the interposing layer is formed between the aluminum material and the organic substance layer , and whereby the resin layer becomes the organic substance layer with electrical conductivity. a resin layer formation step of forming a resin layer on a surface of the aluminum material ; and an organic substance layer formation step of forming the organic substance layer by placing the aluminum material having the resin layer formed thereon in an enclosed space , wherein a hydrocarbon-containing substance is present, and heating the aluminum material and the hydrocarbon-containing substance, whereby the surface of the aluminum material is coated with the organic substance layer , whereby the interposing layer is formed between the aluminum material and the organic substance layer , and whereby the resin layer becomes the organic substance layer with electrical conductivity.
Method for preparation of biofuels using ethanol through the conversion of ethanol in a mixture with hydrocarbons, in a catalytic process on a bed of zeolite-type aluminosilicate, most preferably in the presence of a hydrogen form of the zeolite catalyst, characterized in that ethanol, especially from alcoholic fermentation, at a concentration of at least 10% w/w, or a mixture of ethanol with other alcohols with molecules containing preferably not more than 5 carbon atoms, prior to the catalytic conversion process is mixed with a diluting gas containing hydrocarbons or a mixture of hydrocarbons with non-oxidating substances, such as nitrogen, hydrogen, or carbon dioxide, and the conversion process is carried out without supplying the reaction mixture stream with equimolar quantities of water, and without any additional amount of heat, in a one-step process in the gas phase at a temperature of 250-450°C, preferably at a temperature of 270-350°C and at a pressure up to 5 MPa (up to 50 bar) using at least two alternately operated, preferably four connected in series, flow reactors, filled with a catalyst from a group of zeolite-type aluminosilicates, each reactor provided with a heat exchanger, and then at a temperature of up to 100°C, preferably 30-80°C, and at a pressure up to 2 MPa (20 bar), the "hearts" fraction is recovered from the reaction product, and the remainder, in whole or in part, is recycled back to dilute the alcohol-containing raw material, wherein as the diluting gas containing hydrocarbons there is used a by-product of the process after separation of the "hearts" fraction, said by-product being used in a quantity of 0.5:1 to 20:1 in relation to the weight of the raw material containing alcohol, whereas in the process there is used a catalyst from the aluminosilicate group of the zeolite type ZSM-5 with SiO 2 /Al 2 O 3 ratio from 50 to 280, in the shape of "macaroni" with a diameter of 1.6 mm or 3.2 mm and length up to 20 mm.
A method for adding a vacuum core material fill around an elongated umbilical in a vacuum insulated refrigerator structure , the method comprising steps of: forming a shell having a liner and a wrapper wherein the shell forms an internal cavity ; forming an elongated umbilical having one or more elongated internal passageways extending lengthwise within the umbilical ; forming a gas permeable casing surrounding the elongated umbilical ; inserting a vacuum tube at a first opening of the wrapper between the gas permeable casing and the elongated umbilical ; coupling a first end of the elongated umbilical to the shell with a first fitting at the first opening ; coupling a second end of the elongated umbilical to the shell with a second fitting at a second opening of the liner ; forming a vacuum in the internal cavity of the shell through the vacuum tube while adding the vacuum core material fill ; and routing one or more utility lines through the one or more elongated internal passageways wherein a portion of the one or more utility lines are disposed inside the umbilical and opposite ends of the one or more utility lines extend out of opposite ends of the umbilical . forming a shell having a liner and a wrapper wherein the shell forms an internal cavity ; forming an elongated umbilical having one or more elongated internal passageways extending lengthwise within the umbilical ; forming a gas permeable casing surrounding the elongated umbilical ; inserting a vacuum tube at a first opening of the wrapper between the gas permeable casing and the elongated umbilical ; coupling a first end of the elongated umbilical to the shell with a first fitting at the first opening ; coupling a second end of the elongated umbilical to the shell with a second fitting at a second opening of the liner ; forming a vacuum in the internal cavity of the shell through the vacuum tube while adding the vacuum core material fill ; and routing one or more utility lines through the one or more elongated internal passageways wherein a portion of the one or more utility lines are disposed inside the umbilical and opposite ends of the one or more utility lines extend out of opposite ends of the umbilical .
Disposable bedpan as an open pan having a bottom , a side wall and an edge , regions of the side wall being indentations and/or protrusions, the cross section of the indentation and/or the protrusion decreasing in the direction of the edge , the recess in the disposable bedpan having a first region for the buttocks and a second region elongating the first region as an extension, and at least the central part of the side wall of the extension being a side wall that is raised in comparison with the rest of the side wall , characterised in that the edge of the first region for the buttocks is wider than the edge of the second region , and in that the edge is bent, the curvature of the bend being rounded, and the disposable bedpan being a single piece.
Electric cooker comprising an inner container ; inside the inner container a steam basket is installed, and beneath this steam basket is an opening mechanism facing the bottom wall of the inner container and/or situated in the extension of the side wall of the inner container ; the steam basket is provided with a permeable area and includes a filling chamber situated on this permeable area; an opening space surrounded by the opening mechanism is linked to the filling chamber via the permeable area; the top portion of the steam basket and the top opening of the inner container are hermetically joined; characterised in that : a pressure control element , with at least a portion of this pressure control element being installed on the inner container or the steam basket .
An apparatus for injecting a therapeutic agent into a therapeutic device to treat an eye, the therapeutic device being at least partially implanted in the eye, the apparatus comprising: an injector comprising: an exchange needle configured to penetrate the therapeutic device implanted in the eye, characterised in that the exchange needle comprises: a first lumen having a first opening (189A1) out from the first lumen; and a second lumen surrounding at least a portion of the first lumen and having a second opening (189B1) into the second lumen, wherein the first lumen is longer than the second lumen such that the first opening from the first lumen is located distal to the second opening into the second lumen; and a chamber configured to be in fluid communication with second lumen; wherein injection of an amount of the therapeutic agent into the therapeutic device via the first lumen displaces an amount of pre-existing fluid from the therapeutic device into the chamber via the second lumen. an exchange needle configured to penetrate the therapeutic device implanted in the eye, characterised in that the exchange needle comprises: a first lumen having a first opening (189A1) out from the first lumen; and a second lumen surrounding at least a portion of the first lumen and having a second opening (189B1) into the second lumen, wherein the first lumen is longer than the second lumen such that the first opening from the first lumen is located distal to the second opening into the second lumen; and a first lumen having a first opening (189A1) out from the first lumen; and a second lumen surrounding at least a portion of the first lumen and having a second opening (189B1) into the second lumen, wherein the first lumen is longer than the second lumen such that the first opening from the first lumen is located distal to the second opening into the second lumen; and a chamber configured to be in fluid communication with second lumen; wherein injection of an amount of the therapeutic agent into the therapeutic device via the first lumen displaces an amount of pre-existing fluid from the therapeutic device into the chamber via the second lumen.
An antimicrobial composition comprising (a) habit modified crystals of zinc oxide; and (b) zinc pyrithione wherein the ratio of photoluminescence peak intensity at 452 nm of the habit modified crystals of zinc oxide to that of zinc oxide is at least 5. (a) habit modified crystals of zinc oxide; and (b) zinc pyrithione
A safety system for a self-propelled operating machine , comprising a processing unit which includes: at least one memory module in which is registered a plurality of loading diagrams; at least one limiting module configured for limiting the possibility of operation of actuators of the machine , based on a load diagram; at least one measuring device for acquiring operating parameters relative to various operating conditions of the operating machine ; and at least one selection module configured for selecting from the memory module a loading diagram based on an operating parameter acquired from the measuring device ; the system being characterized in that is configured for use with a self-propelled operating machine equipped with a lifting arm to which can be attached in a removable fashion a plurality of apparatuses , wherein the memory module includes several sets of loading diagrams for respective apparatuses and the processing unit comprises an apparatus module configured to select the set from which to select the diagram to be used, on the basis of the apparatus attached to the arm . at least one memory module in which is registered a plurality of loading diagrams; at least one limiting module configured for limiting the possibility of operation of actuators of the machine , based on a load diagram; at least one measuring device for acquiring operating parameters relative to various operating conditions of the operating machine ; and at least one selection module configured for selecting from the memory module a loading diagram based on an operating parameter acquired from the measuring device ; the system being characterized in that is configured for use with a self-propelled operating machine equipped with a lifting arm to which can be attached in a removable fashion a plurality of apparatuses , wherein the memory module includes several sets of loading diagrams for respective apparatuses and the processing unit comprises an apparatus module configured to select the set from which to select the diagram to be used, on the basis of the apparatus attached to the arm .
An electronic switch module for a power tool having an electric motor , comprising: a printed circuit board (PCB) ; a plurality of power switches mounted on the PCB and configured to switchably supply electric power from a power source to the electric motor ; a plurality of primary heat sinks mounted on the PCB in association with the plurality of power switches ; characterized in that a secondary heat sink mounted on the plurality of primary heat sinks and securely fastened to at least one of the plurality of primary heat sinks via a fastener , the secondary heat sink being electrically insulated from at least one of the plurality of primary heat sinks ; wherein it further comprises an insulating frame mounted over the secondary heat sink , the insulating frame comprising an insulating rim portion disposed to electrically insulate the fastener from the secondary heat sink . a printed circuit board (PCB) ; a plurality of power switches mounted on the PCB and configured to switchably supply electric power from a power source to the electric motor ; a plurality of primary heat sinks mounted on the PCB in association with the plurality of power switches ; characterized in that a secondary heat sink mounted on the plurality of primary heat sinks and securely fastened to at least one of the plurality of primary heat sinks via a fastener , the secondary heat sink being electrically insulated from at least one of the plurality of primary heat sinks ; wherein it further comprises an insulating frame mounted over the secondary heat sink , the insulating frame comprising an insulating rim portion disposed to electrically insulate the fastener from the secondary heat sink .
An implantable medical device (IMD) comprising: a controller; a receiver having a higher power mode and a lower power mode, wherein: in the higher power mode, the receiver can receive a communication from an external device and pass the received communication to the controller; in the lower power mode the receiver operates at less than its maximum power level; a physiological sensor providing an output to the controller; and wherein the controller is configured to control whether the receiver is in the higher power mode or the lower power mode based at least in part on the output of the physiological sensor wherein the controller is configured to: identify a physiological parameter value based on the output of the physiological sensor; and based on one or more rules conditioned at least in part on the identified physiological parameter value, control whether the receiver is in the higher power mode or the lower power mode wherein the identified physiological parameter value comprises a heart rate value, and the one or more rules specify that the receiver is to be placed in the higher power mode when the heart rate value is above a heart rate threshold and the receiver is to be placed in the lower power mode when the heart rate value is below the heart rate threshold. a controller; a receiver having a higher power mode and a lower power mode, wherein: in the higher power mode, the receiver can receive a communication from an external device and pass the received communication to the controller; in the lower power mode the receiver operates at less than its maximum power level; in the higher power mode, the receiver can receive a communication from an external device and pass the received communication to the controller; in the lower power mode the receiver operates at less than its maximum power level; a physiological sensor providing an output to the controller; and wherein the controller is configured to control whether the receiver is in the higher power mode or the lower power mode based at least in part on the output of the physiological sensor wherein the controller is configured to: identify a physiological parameter value based on the output of the physiological sensor; and based on one or more rules conditioned at least in part on the identified physiological parameter value, control whether the receiver is in the higher power mode or the lower power mode identify a physiological parameter value based on the output of the physiological sensor; and based on one or more rules conditioned at least in part on the identified physiological parameter value, control whether the receiver is in the higher power mode or the lower power mode wherein the identified physiological parameter value comprises a heart rate value, and the one or more rules specify that the receiver is to be placed in the higher power mode when the heart rate value is above a heart rate threshold and the receiver is to be placed in the lower power mode when the heart rate value is below the heart rate threshold.
An azeotropic or near-azeotropic composition consisting of from 55 mol% to 95 mol% HF and from 45 mol% to 15 mol% 253fb, at temperatures of from -25°C to + 70°C.
Wiper blade to clean a vehicle window , with a wiper blade body , with a wiper blade adapter to fasten the wiper blade to a wiper arm , with a supply element having at least one connection element to supply at least one cleaning liquid to the supply element , the supply element having a device to supply air and a mixing device to generate a cleaning foam as a cleaning medium, the cleaning medium being composed of the cleaning liquid and the air, characterized in that the wiper blade comprises at least one spray opening arranged on a longitudinal side of the wiper blade body for spraying the cleaning medium on the vehicle window , wherein the at least one spray opening is hydraulically connected to the supply element , and in that the supply element is part of the wiper blade adapter .