mhurhangee/patent-ind-claim-en huggingface dataset:
A method of producing an activated nano-porous carbon, which method comprises steps a) to d): a) mixing a liquid organic compound, wherein the liquid organic compound is at least one of a furfuryl-functional-group compound, with an organic acid catalyst and a conductive carbon powder to make a mixture; b) heating the mixture to make a solid polymerized material; c) carbonizing the solid polymerized material by heating at a controlled temperature to drive out all the volatile compounds to form a carbonized material; and d) activating the carbonized material in a controlled environment to form the activated nano-porous carbon to be used in an electric double layer capacitor electrode, liquid and gas phase filtration, purification and storage applications. a) mixing a liquid organic compound, wherein the liquid organic compound is at least one of a furfuryl-functional-group compound, with an organic acid catalyst and a conductive carbon powder to make a mixture; b) heating the mixture to make a solid polymerized material; c) carbonizing the solid polymerized material by heating at a controlled temperature to drive out all the volatile compounds to form a carbonized material; and d) activating the carbonized material in a controlled environment to form the activated nano-porous carbon to be used in an electric double layer capacitor electrode, liquid and gas phase filtration, purification and storage applications.
A library of bidirectional expression cassettes comprising a repertoire of bidirectional promoter sequences, each expression cassette comprising a bidirectional promoter sequence operably linked to a first gene in one direction, and operably linked to an oppositely oriented second gene in the other direction which is different from the first gene, wherein the bidirectional promoter sequences are selected from the group consisting of (i) SEQ ID NO:39-78, (ii) SEQ ID NO:126-135, (iii) SEQ ID NO: 136-165, and (iv) SEQ ID NO: 166-181, and wherein the repertoire comprises at least 50 different bidirectional promoter sequences.
A power module device (100; 200; 300; 400; 500; 600) having a first main side and a second main side opposite to the first main side , the power module device (100; 200; 300; 400; 500; 600) comprising in an order from the first main side to the second main side : a base plate ; an electrically insulating ceramic layer on the base plate ; an electrically insulating first insulating layer on the ceramic layer , wherein the first insulating layer comprises a prepreg material; an electrically conductive lead frame (140; 140'; 140") on the first insulating layer , wherein the lead frame (140; 140'; 140") is electrically insulated from the base plate ; a power semiconductor device ; and an electrically insulating second insulating layer (160; 160'; 160") on the power semiconductor device so that the power semiconductor device is embedded between the lead frame and the second insulating layer (160; 160'; 160"), wherein the power semiconductor device is disposed on the lead frame (140; 140'; 140"), and wherein a layer thickness (d4) of the first insulating layer is less than 100 μm. a base plate ; an electrically insulating ceramic layer on the base plate ; an electrically insulating first insulating layer on the ceramic layer , wherein the first insulating layer comprises a prepreg material; an electrically conductive lead frame (140; 140'; 140") on the first insulating layer , wherein the lead frame (140; 140'; 140") is electrically insulated from the base plate ; a power semiconductor device ; and an electrically insulating second insulating layer (160; 160'; 160") on the power semiconductor device so that the power semiconductor device is embedded between the lead frame and the second insulating layer (160; 160'; 160"), wherein the power semiconductor device is disposed on the lead frame (140; 140'; 140"), and wherein a layer thickness (d4) of the first insulating layer is less than 100 μm.
A semiconductor radiation detector comprising a detector element arranged to receive radiation in at least two non-parallel directions and to produce an output corresponding to the received radiation, wherein the detector comprises a three-dimensional semiconductor base material , wherein said detector element is arranged such that it forms a continuous radiation sensitive pn-junction with the semiconductor base material, wherein the detector element is provided on all sides of the semiconductor base material, and wherein the detector further comprises a first contact being in contact with a semiconductor base material region and a second contact being in contact with the detector element.
A battery assembly , wherein the battery assembly comprises a first connector and a detection module connected to the first connector , the first connector is configured to fit with a second connector of an electronic device to implement connection, and the detection module is configured to detect whether the first connector is connected to the second connector , wherein when the first connector is connected to the second connector , the detection module is configured to output first identification information through the first connector to indicate that the battery assembly is in a connected state; and after the first connector is disconnected from the second connector , the detection module is configured to generate and output second identification information to indicate that the battery assembly is disconnected, characterized in that the detection module is disposed in the first connector in a packaging manner. when the first connector is connected to the second connector , the detection module is configured to output first identification information through the first connector to indicate that the battery assembly is in a connected state; and after the first connector is disconnected from the second connector , the detection module is configured to generate and output second identification information to indicate that the battery assembly is disconnected, characterized in that the detection module is disposed in the first connector in a packaging manner.
A hover-capable aircraft , comprising: - a motion transmission unit formed by at least a first module ; and - a lubrication system designed to lubricate said transmission unit ; said first module , in turn, comprising: - a casing ; and - movable members housed inside said casing ; said lubrication system comprising: - a feed header of a lubricating fluid; - at least one nozzle fluidly feedable with said lubricating fluid from said feed header and designed to feed the lubricating fluid inside said casing of said first module so as to enable the lubrication of said movable members ; - a collection tank for said lubricating fluid injected by said nozzle ; and - recirculation means designed to cause the recirculation of said lubricating fluid from said collection tank to said feed header ; characterized in that at least said first module comprises a valve available in a first configuration, wherein the outflow of said lubricating fluid from said module to said recirculation means is enabled when the pressure of said lubricating fluid inside said feed header is greater than a threshold value; said valve being available in a second configuration, wherein it fluidly isolates said module from said recirculation means and enables keeping said lubricating fluid inside said casing when the pressure of said lubricating fluid inside said feed header is less than said threshold value. - a motion transmission unit formed by at least a first module ; and - a lubrication system designed to lubricate said transmission unit ; said first module , in turn, comprising: - a casing ; and - movable members housed inside said casing ; said lubrication system comprising: - a feed header of a lubricating fluid; - at least one nozzle fluidly feedable with said lubricating fluid from said feed header and designed to feed the lubricating fluid inside said casing of said first module so as to enable the lubrication of said movable members ; - a collection tank for said lubricating fluid injected by said nozzle ; and - recirculation means designed to cause the recirculation of said lubricating fluid from said collection tank to said feed header ;
An endothelin-B receptor agonist for use in treating a neurodegenerative disorder by administering to a patient in need thereof a therapeutically effective amount of an endothelin-B receptor agonist, wherein the administering comprises three doses of the endothelin-B agonist given intravenously at intervals of 1 to 6 hours, and wherein the endothelin-B receptor agonist is selected from the group consisting of IRL-1620, BQ-3020, [Ala 1,3,11,15 ]-Endothelin, Sarafotoxin S6c, endothelin-3, and a mixture thereof.
A multilayer negative electrode comprising a negative electrode current collector configured to transfer electrons between an outer lead and a negative electrode active material; a first negative electrode mixture layer formed on one surface or both surfaces of the current collector and containing natural graphite as a negative electrode active material; and a second negative electrode mixture layer formed on the first negative electrode mixture layer and containing artificial graphite as a negative electrode active material, wherein the first negative electrode mixture layer further contains artificial graphite, and an amount of the contained natural graphite is from 15 to 75%, by weight based on the total weight of the first negative electrode mixture layer. a first negative electrode mixture layer formed on one surface or both surfaces of the current collector and containing natural graphite as a negative electrode active material; and a second negative electrode mixture layer formed on the first negative electrode mixture layer and containing artificial graphite as a negative electrode active material, wherein the first negative electrode mixture layer further contains artificial graphite, and an amount of the contained natural graphite is from 15 to 75%, by weight based on the total weight of the first negative electrode mixture layer.
A driving assist method using a controller to perform a lane change control of a host vehicle (V1) traveling in a host vehicle lane (L1) to make a lane change to an adjacent lane (L2) in which another vehicle (V4) present is traveling in a surrounding of the host vehicle (V1), the driving assist method comprising: detecting whether there is a request from the host vehicle (V1) to make a lane change to the adjacent lane (L2); detecting whether there is any intention for another vehicle (V4) traveling in the adjacent lane (L2) to make a lane change towards the host vehicle lane (L1) upon detection of a presence of the request from the host vehicle (V1) to make a lane change; establishing a lane-change-intending other vehicle as a designated vehicle (V2) for a place-swapping lane change upon detection of a presence of the intention for another vehicle (V4) to make a lane change towards the host vehicle lane (L1); and setting the position of the designated vehicle (V2) traveling in the adjacent lane (L2) as a target lane change to be made by the host vehicle (V1), and performing a lane change control based on the target lane change. detecting whether there is a request from the host vehicle (V1) to make a lane change to the adjacent lane (L2); detecting whether there is any intention for another vehicle (V4) traveling in the adjacent lane (L2) to make a lane change towards the host vehicle lane (L1) upon detection of a presence of the request from the host vehicle (V1) to make a lane change; establishing a lane-change-intending other vehicle as a designated vehicle (V2) for a place-swapping lane change upon detection of a presence of the intention for another vehicle (V4) to make a lane change towards the host vehicle lane (L1); and setting the position of the designated vehicle (V2) traveling in the adjacent lane (L2) as a target lane change to be made by the host vehicle (V1), and performing a lane change control based on the target lane change.
Method for the biotechnological production of carboxylic acids, in which microorganisms are used which are cultivated under non-sterile conditions in a cultivation medium which contains wastewater containing carbon-rich compounds and/or to which carbon-rich compounds are added, where microorganisms strains of yeast species Yarrowia lipolytica are used; carboxylic acids comprise aconitic, malic, succinic, citric, fumaric, isocitric, α-ketoglutaric, oxaloacetic, pyruvic and/or itaconic acids, preferably citric acid; and wherein the carbon-rich compounds comprise mono-, di-, triglycerides, fatty acids, fatty acid methyl or ethyl esters, ethanol, methanol, glycerol, glucose, fructose, galactose, lactose, lactic acid, sucrose, xylose, arabinose and/or -nalkanes. microorganisms strains of yeast species Yarrowia lipolytica are used; carboxylic acids comprise aconitic, malic, succinic, citric, fumaric, isocitric, α-ketoglutaric, oxaloacetic, pyruvic and/or itaconic acids, preferably citric acid; and wherein the carbon-rich compounds comprise mono-, di-, triglycerides, fatty acids, fatty acid methyl or ethyl esters, ethanol, methanol, glycerol, glucose, fructose, galactose, lactose, lactic acid, sucrose, xylose, arabinose and/or -nalkanes.
A plasma generator comprising: a gripping portion comprising at least one interface unit configured to receive an input from a user; a head portion comprising a plasma generating portion configured to generate the plasma; a first cartridge configured to detachably couple at a first end of the head portion and generate the plasma over a predetermined region; and a light irradiation portion provided at a second end of the head portion, wherein at least one suction hole (h1) for sucking ozone (O 3 ) that is generated as the plasma is irradiated to the skin is formed in the first cartridge, the head portion comprises an ozone removal portion for removing the ozone, the ozone removal portion comprises a suction fan for sucking the ozone and an ozone filtering portion for removing the sucked ozone, and the light irradiation portion comprises a plurality of discharge holes (h4) for discharging gas in which the ozone is removed by passing through the ozone filtering portion. a gripping portion comprising at least one interface unit configured to receive an input from a user; a head portion comprising a plasma generating portion configured to generate the plasma; a first cartridge configured to detachably couple at a first end of the head portion and generate the plasma over a predetermined region; and a light irradiation portion provided at a second end of the head portion, wherein at least one suction hole (h1) for sucking ozone (O 3 ) that is generated as the plasma is irradiated to the skin is formed in the first cartridge, the head portion comprises an ozone removal portion for removing the ozone, the ozone removal portion comprises a suction fan for sucking the ozone and an ozone filtering portion for removing the sucked ozone, and the light irradiation portion comprises a plurality of discharge holes (h4) for discharging gas in which the ozone is removed by passing through the ozone filtering portion.
Injection molding device comprising a center part and a rotating device for holding and rotating the center part in the injection molding device , the rotating device comprising a. a base supported with respect to an injection molding machine, b. a column attached to the base extending in an axial direction (z) above the base and c. a sleeve coaxially surrounding the column and being at least partially arranged in the center part , wherein the sleeve rotates with the center part around the column , wherein d. grooves , used to exchange liquid and/or gaseous media between the column and the sleeve , are arranged between the column and the sleeve and characterized in that e. the column is arranged removable with respect to the center part , wherein the center part is positioned with respect to the base by fixation means (1 5), when the column is removed from the center part . a. a base supported with respect to an injection molding machine, b. a column attached to the base extending in an axial direction (z) above the base and c. a sleeve coaxially surrounding the column and being at least partially arranged in the center part , wherein the sleeve rotates with the center part around the column , wherein d. grooves , used to exchange liquid and/or gaseous media between the column and the sleeve , are arranged between the column and the sleeve and characterized in that e. the column is arranged removable with respect to the center part , wherein the center part is positioned with respect to the base by fixation means (1 5), when the column is removed from the center part .
A method of forming an oxidation resistant coating layer containing aluminum on a surface layer of a member formed of metallic material, the method comprising: a plating treatment step of plating aluminum on a surface of the member in a solvent; and a heat treatment step of heat-treating the member whose surface has been plated by the plating treatment step, wherein in the heat treatment step, the member is heated at a first temperature increase rate of 15°C/min until the member reaches 600°C from room temperature, at a second temperature increase rate of 10°C/min until the member reaches from 600°C, a temperature calculated by subtracting 10 °C from a treatment temperature, and at a third temperature increase rate of 0.5°C/min until the member reaches the treatment temperature from the temperature calculated by subtracting 10 °C from the treatment temperature, the member is nickel-based alloy, in the heat treatment step, β-NiAl phase is formed in the surface layer of the member by diffusing the aluminum into the surface layer of the member; and wherein the temperature of the heat treatment in the heat treatment step is 1000°C or higher. a plating treatment step of plating aluminum on a surface of the member in a solvent; and a heat treatment step of heat-treating the member whose surface has been plated by the plating treatment step, wherein in the heat treatment step, the member is heated at a first temperature increase rate of 15°C/min until the member reaches 600°C from room temperature, at a second temperature increase rate of 10°C/min until the member reaches from 600°C, a temperature calculated by subtracting 10 °C from a treatment temperature, and at a third temperature increase rate of 0.5°C/min until the member reaches the treatment temperature from the temperature calculated by subtracting 10 °C from the treatment temperature, the member is nickel-based alloy, in the heat treatment step, β-NiAl phase is formed in the surface layer of the member by diffusing the aluminum into the surface layer of the member; and wherein the temperature of the heat treatment in the heat treatment step is 1000°C or higher.
A method of wireless communication performed by a wireless communication device , comprising: determining (305; 410) that a phase-tracking reference signal, PTRS, will not be transmitted based at least in part on a mapping value associated with transmitting the PTRS; and identifying (310; 420), based at least in part on determining that the PTRS will not be transmitted based at least in part on the mapping value, another mapping value associated with transmitting the PTRS, wherein the other mapping value is different from the mapping value; wherein the determining (305; 410) that the PTRS, will not be transmitted based at least in part on the mapping value comprises determining that a demodulation reference signal, DMRS, symbol is to be muted in a slot associated with a dynamic slot aggregation; and wherein each mapping value defines the density of PTRS tones within the slot. determining (305; 410) that a phase-tracking reference signal, PTRS, will not be transmitted based at least in part on a mapping value associated with transmitting the PTRS; and identifying (310; 420), based at least in part on determining that the PTRS will not be transmitted based at least in part on the mapping value, another mapping value associated with transmitting the PTRS, wherein the other mapping value is different from the mapping value; wherein the determining (305; 410) that the PTRS, will not be transmitted based at least in part on the mapping value comprises determining that a demodulation reference signal, DMRS, symbol is to be muted in a slot associated with a dynamic slot aggregation; and wherein each mapping value defines the density of PTRS tones within the slot.
A gasket for use between aircraft parts under compression, the gasket comprising: a body comprising an elastomeric polymer; and a metal skeleton encapsulated by the body of the gasket; wherein the body is comprised of a tacky, deformable, flowable gel, which under compression deforms and flows such that the skeleton contacts, in use, with the aircraft parts between which the gasket is, in use, situated, thereby providing an electrically conductive path between said aircraft parts; characterised in that the metal skeleton includes an electrically conductive or semi-conductive and corrosion inhibiting conversion layer made by conversion coating . a body comprising an elastomeric polymer; and a metal skeleton encapsulated by the body of the gasket; wherein the body is comprised of a tacky, deformable, flowable gel, which under compression deforms and flows such that the skeleton contacts, in use, with the aircraft parts between which the gasket is, in use, situated, thereby providing an electrically conductive path between said aircraft parts; characterised in that the metal skeleton includes an electrically conductive or semi-conductive and corrosion inhibiting conversion layer made by conversion coating .
Refrigeration appliance, in particular household refrigeration appliance, having an inner container with a front-side opening which can be closed off by a door leaf for removing and/or loading refrigerated goods, and a pull-out refrigerated goods container , as well as mounting means for the telescopic mounting of the refrigerated goods container in the inner container , wherein the mounting means each have at least one roller on opposing sides of the refrigerated goods container , which roll over at least one running track of the inner container , wherein the at least one running track has at least one track section , which is embodied in a sloping manner in the direction of a rear wall of the inner container , characterised in that the track section sloping in the direction of the rear wall of the inner container is embodied in a sloping manner above a height (H) which at least corresponds to the height (h) of a section of the roller protruding from the base of the refrigerated goods container , and that the refrigerated goods container first actively runs in with its rollers along the track sections embodied in a sloping manner in the direction of a rear wall of the inner container and then sits at the end of the track section embodied in a sloping manner with its base area on the base of the inner container and/or a separate support section and the rollers are disburdened in the completely inserted position of the refrigerated goods container .