mhurhangee/patent-ind-claim-en huggingface dataset:
A display device, comprising: a display panel ; a back cover placed at a rear of the display panel , wherein the back cover includes an opening (245; 271), a frame configured to be attached to a surface , the frame to be positioned at a rear of the back cover , wherein the frame includes a hook configured to be inserted into the opening (245; 271) of the back cover , a metal plate placed at the back cover and including an empty central part, wherein the metal plate is adapted to couple with the frame magnetically, characterized in that the opening (245; 271) is formed adjacent to a first edge of the display panel , and the metal plate is positioned adjacent to a second edge of the display panel , wherein the second edge of the display panel is opposite to the first edge of the display panel , wherein the frame includes a magnetic material. a display panel ; a back cover placed at a rear of the display panel , wherein the back cover includes an opening (245; 271), a frame configured to be attached to a surface , the frame to be positioned at a rear of the back cover , wherein the frame includes a hook configured to be inserted into the opening (245; 271) of the back cover , a metal plate placed at the back cover and including an empty central part, wherein the metal plate is adapted to couple with the frame magnetically, characterized in that the opening (245; 271) is formed adjacent to a first edge of the display panel , and the metal plate is positioned adjacent to a second edge of the display panel , wherein the second edge of the display panel is opposite to the first edge of the display panel , wherein the frame includes a magnetic material.
Twin row growing method with subirrigation, comprising the steps of: - arranging stably before sowing, underneath a flat agricultural land , parallel to one another and at regular intervals, at a specific depth (h), a plurality of drip hoses for the underground distribution of water; - memorizing in time the position of said drip hoses; - identifying in time the position of said previously arranged hoses ; - sowing seeds in twin rows (B) composed of parallel rows in said flat agricultural land , at a lesser depth than said specific depth (h), so that the centreline of each twin row (B) coincides with the axis of each single hose , and so as to leave a desired distance (D) between external rows of seeds of adjacent twin rows (B); - introducing water into said drip hoses , so that the water distributed by means of subirrigation reaches the roots of plants born from said seeds belonging to each twin row (B), leaving a strip (d) of agricultural land, of a lesser width than said desired distance (D) between said hoses without irrigation water; - detecting the moisture of the soil at various depths and at various distances from the single hoses during the introduction of water into said hoses , and the step of dosing the introduction of water based on the moisture detected, so as to verify that said strip (d) of land without a supply of water remains between these hoses. - arranging stably before sowing, underneath a flat agricultural land , parallel to one another and at regular intervals, at a specific depth (h), a plurality of drip hoses for the underground distribution of water; - memorizing in time the position of said drip hoses; - identifying in time the position of said previously arranged hoses ; - sowing seeds in twin rows (B) composed of parallel rows in said flat agricultural land , at a lesser depth than said specific depth (h), so that the centreline of each twin row (B) coincides with the axis of each single hose , and so as to leave a desired distance (D) between external rows of seeds of adjacent twin rows (B); - introducing water into said drip hoses , so that the water distributed by means of subirrigation reaches the roots of plants born from said seeds belonging to each twin row (B), leaving a strip (d) of agricultural land, of a lesser width than said desired distance (D) between said hoses without irrigation water; - detecting the moisture of the soil at various depths and at various distances from the single hoses during the introduction of water into said hoses , and the step of dosing the introduction of water based on the moisture detected, so as to verify that said strip (d) of land without a supply of water remains between these hoses.
A composite semipermeable membrane which is a reverse osmosis membrane and comprises: a substrate ; a porous layer provided on the substrate; a membrane separation layer consisting of a crosslinked polyamide and provided on the porous layer ; and a crystalline polymer contained in the porous layer and having a crystallinity of 30% or more and 50% or less as measured according to the description, wherein the porous layer consists of a fluoropolymer or consists of a polymer selected from polyetherimide and polyamideimide and has an average pore diameter from 5 nm to 50 nm on the surface and extends from said surface with a thickness of 10 μm to 100 μm and is a layer formed by a non-solvent-induced phase separation method or a thermally-induced phase separation method with forming the porous layer on a substrate , and the membrane separation layer is a layer formed by immersion of a polyfunctional amine compound and thereafter contacting the porous layer with a solution of an acid halide compound to perform interfacial polymerization, and wherein a compression ratio of a portion including the porous layer and the membrane separation layer when subjected to a pressure of 5.5 MPa is 60% or less as measured according to the description. a substrate ; a porous layer provided on the substrate; a membrane separation layer consisting of a crosslinked polyamide and provided on the porous layer ; and a crystalline polymer contained in the porous layer and having a crystallinity of 30% or more and 50% or less as measured according to the description, wherein the porous layer consists of a fluoropolymer or consists of a polymer selected from polyetherimide and polyamideimide and has an average pore diameter from 5 nm to 50 nm on the surface and extends from said surface with a thickness of 10 μm to 100 μm and is a layer formed by a non-solvent-induced phase separation method or a thermally-induced phase separation method with forming the porous layer on a substrate , and the membrane separation layer is a layer formed by immersion of a polyfunctional amine compound and thereafter contacting the porous layer with a solution of an acid halide compound to perform interfacial polymerization, and wherein a compression ratio of a portion including the porous layer and the membrane separation layer when subjected to a pressure of 5.5 MPa is 60% or less as measured according to the description.
An ink formulation, comprising: a first immiscible liquid, wherein the first immiscible liquid is selected from glycerol; water, optionally containing dissolved salts; ethylene glycol; propylene glycol; diethylene glycol; pentaerythritol; trimethylol propane; trimethylol ethane; a second immiscible liquid, wherein the second immiscible liquid is selected from propylene carbonate, dipropyl carbonate; tributyl phosphate; ethylhexyl acetate; isobornyl acetate; isoparaffins; aliphatic hydrocarbons; diethyl malonate, dimethyl malonate, and dipropylene glycol methyl ether acetate, wherein a mixture of the first and the second immiscible liquids is a phase-separated mixture; glass frit particles; and a third liquid facilitating formation of a mixture of the first and the second immiscible liquids into a single phase mixture, wherein the third liquid is selected from ((2,2-dimethyl-1,3-dioxolan-4-yl)methanol), dipropylene glycol methyl ether; propylene glycol methyl ether; propylene glycol butyl ether; diacetone alcohol; ethyl lactate; cyclohexanol; 2-methoxymethylethoxypropanol; and n-butanol, wherein the third liquid is suitable for letting a phase-separation of the first and second immiscible liquids occur during ink drying of the single phase mixture. a first immiscible liquid, wherein the first immiscible liquid is selected from glycerol; water, optionally containing dissolved salts; ethylene glycol; propylene glycol; diethylene glycol; pentaerythritol; trimethylol propane; trimethylol ethane; a second immiscible liquid, wherein the second immiscible liquid is selected from propylene carbonate, dipropyl carbonate; tributyl phosphate; ethylhexyl acetate; isobornyl acetate; isoparaffins; aliphatic hydrocarbons; diethyl malonate, dimethyl malonate, and dipropylene glycol methyl ether acetate, wherein a mixture of the first and the second immiscible liquids is a phase-separated mixture; glass frit particles; and a third liquid facilitating formation of a mixture of the first and the second immiscible liquids into a single phase mixture, wherein the third liquid is selected from ((2,2-dimethyl-1,3-dioxolan-4-yl)methanol), dipropylene glycol methyl ether; propylene glycol methyl ether; propylene glycol butyl ether; diacetone alcohol; ethyl lactate; cyclohexanol; 2-methoxymethylethoxypropanol; and n-butanol, wherein the third liquid is suitable for letting a phase-separation of the first and second immiscible liquids occur during ink drying of the single phase mixture.
A tool for a stacked material workpiece, said tool comprising a tool body (23, 23") comprising one or more helical flutes (25, 25") extending to a forward end (27, 27") of the tool body (23, 23"), wherein each helical flute (25, 25") has a width defined by a first cutting edge (29, 29") and a second edge (31, 31"), a first surface of the flute (25, 25") adjacent the first cutting edge (29, 29") facing the forward end (27, 27") of the tool body (23, 23") and a second surface of the flute (25, 25") adjacent the second edge (31, 31") facing away from the forward end (27, 27") of the tool body (23, 23"), wherein each helical flute (25, 25") comprises a first portion (37, 37") having a first pitch angle and a second portion (39, 39") having a second pitch angle different from the first pitch angle, the first portion (37, 37") extending from the forward end (27, 27") of the tool body (23, 23") to the second portion (39, 39"), characterised in that the first pitch angle is greater than the second pitch angle, and in that wherein the first pitch angle is chosen in the range of 35 to 45°, preferably about 40° and the second pitch angle is chosen in the range of 5 to 15°, preferably about 10°.
A genetically modified yeast cell of the genus Saccharomyces for the fermentation of glycerol, wherein the yeast cell is genetically modified in such a way that i) the degradation of glycerol into dihydroxyacetone phosphate via the glycerol-3 phosphate pathway is blocked, ii) a heterologous glycerol uptake facilitator protein is expressed, iii) a heterologous glycerol dehydrogenase catalysing the oxidation of glycerol into dihydroxyacetone is expressed or a native glycerol dehydrogenase catalysing the oxidation of glycerol into dihydroxyacetone is overexpressed, iv) a heterologous dihydroxyacetone kinase is expressed or a native dihydroxyacetone kinase is overexpressed, v) a heterologous C4-dicarboxylic acid transporter is expressed, vi) a heterologous glycerol dehydratase is expressed, vii) a heterologous 1,3-PDO oxidoreductase is expressed, viii) a heterologous PEP carboxykinase is expressed or the native PEP carboxykinase is overexpressed, and ix) the pyruvate carboxylase is deactivated. i) the degradation of glycerol into dihydroxyacetone phosphate via the glycerol-3 phosphate pathway is blocked, ii) a heterologous glycerol uptake facilitator protein is expressed, iii) a heterologous glycerol dehydrogenase catalysing the oxidation of glycerol into dihydroxyacetone is expressed or a native glycerol dehydrogenase catalysing the oxidation of glycerol into dihydroxyacetone is overexpressed, iv) a heterologous dihydroxyacetone kinase is expressed or a native dihydroxyacetone kinase is overexpressed, v) a heterologous C4-dicarboxylic acid transporter is expressed, vi) a heterologous glycerol dehydratase is expressed, vii) a heterologous 1,3-PDO oxidoreductase is expressed, viii) a heterologous PEP carboxykinase is expressed or the native PEP carboxykinase is overexpressed, and ix) the pyruvate carboxylase is deactivated.
A method of resistance spot welding comprising: positioning a first metal sheet and a second metal sheet between two electrodes , wherein at least a portion of the first metal sheet overlaps a portion of the second metal sheet between the two electrodes , wherein the first metal sheet and the second metal sheet comprise an aluminum alloy, clamping the two electrodes together such that the electrodes contact opposing surfaces of the first metal sheet and the second metal sheet ; and applying a current to the first metal sheet and the second metal sheet through the two electrodes to form a weld having a minimum weld size to join the first metal sheet with the second metal sheet, and wherein the current is within a weld envelope, wherein the weld envelope includes a minimum current sufficient for forming the minimum weld size and a maximum current at which metal expulsion and/or surface cracking occurs, characterized in that the first metal sheet is a fusion alloy comprising a core of a first aluminum alloy and at least one outer layer of a second aluminum alloy that is different from the first aluminum alloy, and wherein the second metal sheet comprises a monolithic aluminum sheet. positioning a first metal sheet and a second metal sheet between two electrodes , wherein at least a portion of the first metal sheet overlaps a portion of the second metal sheet between the two electrodes , wherein the first metal sheet and the second metal sheet comprise an aluminum alloy, clamping the two electrodes together such that the electrodes contact opposing surfaces of the first metal sheet and the second metal sheet ; and applying a current to the first metal sheet and the second metal sheet through the two electrodes to form a weld having a minimum weld size to join the first metal sheet with the second metal sheet, and wherein the current is within a weld envelope, wherein the weld envelope includes a minimum current sufficient for forming the minimum weld size and a maximum current at which metal expulsion and/or surface cracking occurs, characterized in that the first metal sheet is a fusion alloy comprising a core of a first aluminum alloy and at least one outer layer of a second aluminum alloy that is different from the first aluminum alloy, and wherein the second metal sheet comprises a monolithic aluminum sheet.
A method of performing a reception of a physical downlink control channel, PDCCH, consisting of one or more control channel elements, CCEs, by a device for wireless communication, the method comprising: obtaining higher layer information including a resource element group, REG, bundle size for bundling REGs, each REG occupying 1 resource block, RB, in a frequency domain during 1 orthogonal frequency divisional multiplexing, OFDM, symbol in a time domain; and performing, based on the higher layer information, a PDCCH reception in a control resource set, CORESET, by assuming that same precoding is used for REGs in a same REG bundle, wherein, based on an interleaved CCE-to-REG mapping being configured in the CORESET, and based on a CORESET duration configured for the CORESET being a plurality of OFDM symbols in the time domain: the same REG bundle for the same precoding relates to either (a) a first value of the REG bundle size, the first value being equal to the CORESET duration, or (b) a second value of the REG bundle size which is greater than the first value, - (a) for the first value of the REG bundle size, every REG within the same REG bundle occupies a same RB in the frequency domain, and - (b) for the second value of the REG bundle size, the same REG bundle covers multiple RBs in the frequency domain in the CORESET. obtaining higher layer information including a resource element group, REG, bundle size for bundling REGs, each REG occupying 1 resource block, RB, in a frequency domain during 1 orthogonal frequency divisional multiplexing, OFDM, symbol in a time domain; and performing, based on the higher layer information, a PDCCH reception in a control resource set, CORESET, by assuming that same precoding is used for REGs in a same REG bundle, wherein, based on an interleaved CCE-to-REG mapping being configured in the CORESET, and based on a CORESET duration configured for the CORESET being a plurality of OFDM symbols in the time domain: the same REG bundle for the same precoding relates to either (a) a first value of the REG bundle size, the first value being equal to the CORESET duration, or (b) a second value of the REG bundle size which is greater than the first value, - (a) for the first value of the REG bundle size, every REG within the same REG bundle occupies a same RB in the frequency domain, and - (b) for the second value of the REG bundle size, the same REG bundle covers multiple RBs in the frequency domain in the CORESET. - (a) for the first value of the REG bundle size, every REG within the same REG bundle occupies a same RB in the frequency domain, and - (b) for the second value of the REG bundle size, the same REG bundle covers multiple RBs in the frequency domain in the CORESET.
An air conditioner comprising: at least one outdoor unit having a compressor , a flow passage switching unit , an outdoor heat exchanger , a low-pressure detector , and an outdoor unit controller and realizing plural values of rated capacity by controlling the compressor with the same outdoor heat exchanger; at least one indoor unit (5a; 5b; 5c; 5d) having an indoor heat exchanger (51a; 51b; 51c; 51d); and at least one liquid pipe and at least one gas pipe for coupling the outdoor unit and the indoor unit (5a; 5b; 5c; 5d), wherein the low-pressure detector is configured to detect suction pressure that is a pressure of a refrigerant suctioned into the compressor , the outdoor unit controller is configured to control a rotational speed of the compressor at a time that a defrosting operation is performed within a predetermined rotational speed control range in accordance with the suction pressure received from the low-pressure detector , and the rotational speed control range is defined in accordance with a total sum of a rated capacity of the at least one indoor unit (5a; 5b; 5c; 5d), the rated capacity of the indoor unit (5a; 5b; 5c; 5d) being equivalent to the size of the indoor heat exchanger (51a; 51b; 51c; 51d). at least one outdoor unit having a compressor , a flow passage switching unit , an outdoor heat exchanger , a low-pressure detector , and an outdoor unit controller and realizing plural values of rated capacity by controlling the compressor with the same outdoor heat exchanger; at least one indoor unit (5a; 5b; 5c; 5d) having an indoor heat exchanger (51a; 51b; 51c; 51d); and at least one liquid pipe and at least one gas pipe for coupling the outdoor unit and the indoor unit (5a; 5b; 5c; 5d), wherein the low-pressure detector is configured to detect suction pressure that is a pressure of a refrigerant suctioned into the compressor , the outdoor unit controller is configured to control a rotational speed of the compressor at a time that a defrosting operation is performed within a predetermined rotational speed control range in accordance with the suction pressure received from the low-pressure detector , and the rotational speed control range is defined in accordance with a total sum of a rated capacity of the at least one indoor unit (5a; 5b; 5c; 5d), the rated capacity of the indoor unit (5a; 5b; 5c; 5d) being equivalent to the size of the indoor heat exchanger (51a; 51b; 51c; 51d).
A method for analyzing a plurality of nucleic acid molecules, comprising: (a) providing a device comprising a plurality of partitions, wherein at least a subset of said plurality of partitions comprises said plurality of nucleic acid molecules, wherein each partition of said at least said subset of said plurality of partitions is configured to permit gas flow from said at least said subset of said plurality of partitions to an environment external to said at least said subset of said plurality of partitions through at least one barrier separating said at least said subset of said plurality of partitions from said external environment; (b) while subjecting said at least said subset of said plurality of partitions to controlled heating, collecting signals from said at least said subset of said plurality of partitions; and (c) processing said signals collected in (b) to yield data indicative of a melting point of at least a subset of said plurality of nucleic acid molecules in said at least said subset of said plurality of partitions. (a) providing a device comprising a plurality of partitions, wherein at least a subset of said plurality of partitions comprises said plurality of nucleic acid molecules, wherein each partition of said at least said subset of said plurality of partitions is configured to permit gas flow from said at least said subset of said plurality of partitions to an environment external to said at least said subset of said plurality of partitions through at least one barrier separating said at least said subset of said plurality of partitions from said external environment; (b) while subjecting said at least said subset of said plurality of partitions to controlled heating, collecting signals from said at least said subset of said plurality of partitions; and (c) processing said signals collected in (b) to yield data indicative of a melting point of at least a subset of said plurality of nucleic acid molecules in said at least said subset of said plurality of partitions.