mhurhangee/patent-ind-claim-en huggingface dataset:
An electrophoretic display film comprising microcups, wherein at least a plurality of the microcups each comprise a wavy partition wall (81; 91), and wherein wavy partition walls in different microcups differ from each other in at least one of pitch (P1, P2, P3) and amplitude (A, A', A"), where pitch means the distance between successive points at which the wavy partition wall (81; 91) crosses the path of a straight reference line extending between the same vertices as the wavy partition wall (81; 91) and amplitude (A, A', A") refers to maximum distance between the wavy partition wall (81; 91) and the aforementioned straight reference line .
A water-in-oil emulsion cosmetic comprising: (A) a polar oil that is liquid at 25 °C and of which an IOB value is greater than 0.1; (B) a hydrocarbon oil; (C) a polyoxyalkylene/alkyl co-modified organopolysiloxane represented by general formula (I) below: where R represents a hydrogen atom or an alkyl group having 1 to 5 carbon atoms, x represents an integer from 5 to 50, y represents an integer from 1 to 30, z represents an integer from 20 to 200, a represents an integer from 2 to 20, b represents an integer from 1 to 5, c represents an integer from 2 to 20, and d represents an integer from 0 to 20; and (D) a powder that is surface-treated with an N-acylamino acid and a methylpolysiloxane. (A) a polar oil that is liquid at 25 °C and of which an IOB value is greater than 0.1; (B) a hydrocarbon oil; (C) a polyoxyalkylene/alkyl co-modified organopolysiloxane represented by general formula (I) below: where R represents a hydrogen atom or an alkyl group having 1 to 5 carbon atoms, x represents an integer from 5 to 50, y represents an integer from 1 to 30, z represents an integer from 20 to 200, a represents an integer from 2 to 20, b represents an integer from 1 to 5, c represents an integer from 2 to 20, and d represents an integer from 0 to 20; and (D) a powder that is surface-treated with an N-acylamino acid and a methylpolysiloxane.
A sound insulation material composition, comprising: 50 to 300 parts by weight of EPDM rubber, 10 to 300 parts by weight of mica powders, 10 to 300 parts by weight of dolomite, 2 to 15 parts by weight of a vulcanizing agent, wherein the vulcanizing agent is selected from one or more of dicumyl peroxide, bis(tert-butyl peroxy isopropyl)benzene and 2,5-dimethyl-2,5-bis(tert-butyl peroxide) hexane, 3 to 60 parts by weight of a compatibilizer, 30 to 300 parts by weight of a fire retardant, 0.2 to 3 parts by weight of a cross-linking agent, wherein the cross-linking agent is selected from at least one of triallyl cyanurate and triallyl isocyanurate, 10 to 80 parts by weight of a plasticizer, and 100 to 500 parts by weight of barium sulfate. 50 to 300 parts by weight of EPDM rubber, 10 to 300 parts by weight of mica powders, 10 to 300 parts by weight of dolomite, 2 to 15 parts by weight of a vulcanizing agent, wherein the vulcanizing agent is selected from one or more of dicumyl peroxide, bis(tert-butyl peroxy isopropyl)benzene and 2,5-dimethyl-2,5-bis(tert-butyl peroxide) hexane, 3 to 60 parts by weight of a compatibilizer, 30 to 300 parts by weight of a fire retardant, 0.2 to 3 parts by weight of a cross-linking agent, wherein the cross-linking agent is selected from at least one of triallyl cyanurate and triallyl isocyanurate, 10 to 80 parts by weight of a plasticizer, and 100 to 500 parts by weight of barium sulfate.
A method of monitoring health information of an aircraft and transmitting information from the aircraft , comprising: determining, by a management unit , a priority level of a health-related message; determining, by the management unit , capabilities of multiple radios onboard the aircraft in which the capabilities comprise: operative or inoperative status, currently transmitting status, and availability during current portion of flight plan; selecting, by the management unit , one of the multiple radios to transmit the health-related message based on at least the determined priority level of the health-related message; and the capabilities of the radios; transmitting the health-related message utilizing the selected radio . determining, by a management unit , a priority level of a health-related message; determining, by the management unit , capabilities of multiple radios onboard the aircraft in which the capabilities comprise: operative or inoperative status, currently transmitting status, and availability during current portion of flight plan; selecting, by the management unit , one of the multiple radios to transmit the health-related message based on at least the determined priority level of the health-related message; and the capabilities of the radios; transmitting the health-related message utilizing the selected radio .
Composite metal oxide which comprises • 80 to 97 wt%, in relation to the weight of the composite metal oxide, of one or more oxides of cerium and • 3 to 20 wt%, in relation to the composite metal oxide, of a metal oxide comprising tin oxide (SnO 2 ) and lanthanum oxide (La 2 O 3 ), wherein the weight ratio of tin oxide to lanthanum oxide is 4:1 to 1:1,5. • 80 to 97 wt%, in relation to the weight of the composite metal oxide, of one or more oxides of cerium and • 3 to 20 wt%, in relation to the composite metal oxide, of a metal oxide comprising tin oxide (SnO 2 ) and lanthanum oxide (La 2 O 3 ),
A nozzle member , comprising: a base including a first surface having a plurality of through-holes as ejection orifices ; a metal oxide film located on the first surface ; and a water-repellent film located on the metal oxide film , wherein the metal oxide film has a greater thickness in a first area (A1) than in a second area (A2), the first area (A1) is an area surrounding each ejection orifice , and the second area (A2) is an area between adjacent first areas (A1), characterized in that the metal oxide film is thickest at positions slightly outward from the edge of the ejection orifice , and in that the thickness of the metal oxide film decreases gradually away from the ejection orifice , and is substantially uniform at positions outward from a predetermined point. a base including a first surface having a plurality of through-holes as ejection orifices ; a metal oxide film located on the first surface ; and a water-repellent film located on the metal oxide film , wherein the metal oxide film has a greater thickness in a first area (A1) than in a second area (A2), the first area (A1) is an area surrounding each ejection orifice , and the second area (A2) is an area between adjacent first areas (A1), characterized in that the metal oxide film is thickest at positions slightly outward from the edge of the ejection orifice , and in that the thickness of the metal oxide film decreases gradually away from the ejection orifice , and is substantially uniform at positions outward from a predetermined point.
An air conditioning system including a heat source apparatus (CS), a pump (WP), a plurality of load apparatuses (101-1, 101-n) and a trunk pipe for supply of the heating medium from the heat source apparatus (CS) to the load apparatuses (101-1, 101-n), each load apparatus (101-1, 101-n) for being arranged in one out of a plurality of rooms (R1-Rn), respectively, and comprising an indoor heat exchanger connected to the heat source apparatus (CS) and a temperature adjustment apparatus configured to adjust a temperature of a heating medium that can exchange heat with air in the indoor heat exchanger ; , wherein each temperature adjustment apparatus (101-1, 101-n) comprises: a first pipe (FP1) through which the heating medium can flow; a second pipe (FP2) through which the heating medium can flow, the second pipe (FP2) being branched into a first branch pipe and a second branch pipe , the first branch pipe and the second branch pipe being thereafter merged again; a second heat exchanger in which heat is exchanged between the heating medium that can flow through the first branch pipe and the heating medium that can flow through the first pipe (FP1); and a flow rate regulator configured to change a flow rate of the heating medium that can flow through the first branch pipe and a flow rate of the heating medium that can flow through the second branch pipe , one of the first pipe (FP1) and the second pipe (FP2) being a pipe configured to supply the heating medium from the heat source apparatus (CS) to the indoor heat exchanger and the other of the first pipe (FP1) and the second pipe (FP2) being a pipe configured to return the heating medium from the indoor heat exchanger to the heat source apparatus (CS). a first pipe (FP1) through which the heating medium can flow; a second pipe (FP2) through which the heating medium can flow, the second pipe (FP2) being branched into a first branch pipe and a second branch pipe , the first branch pipe and the second branch pipe being thereafter merged again; a second heat exchanger in which heat is exchanged between the heating medium that can flow through the first branch pipe and the heating medium that can flow through the first pipe (FP1); and a flow rate regulator configured to change a flow rate of the heating medium that can flow through the first branch pipe and a flow rate of the heating medium that can flow through the second branch pipe , one of the first pipe (FP1) and the second pipe (FP2) being a pipe configured to supply the heating medium from the heat source apparatus (CS) to the indoor heat exchanger and the other of the first pipe (FP1) and the second pipe (FP2) being a pipe configured to return the heating medium from the indoor heat exchanger to the heat source apparatus (CS).
A cyclic peptide, wherein the peptide is of formula (I) cyclo(x(i)GYAFNGTKLDAVYLNKNKYLTVID) (I) wherein x is at each occurrence individually selected from an amino acid; i is an integer from 0 to 5. x is at each occurrence individually selected from an amino acid; i is an integer from 0 to 5.
A plasma polymerisation method for coating a substrate with a polymer layer, which method comprises: providing a substrate to be coated within a plasma chamber; introducing a flow of a pre-treatment precursor to the plasma chamber; applying a power at a level greater than zero Watts (W) and converting the pre-treatment precursor to a pre-treatment precursor plasma; exposing the substrate to the pre-treatment precursor plasma; introducing a flow of a first polymer precursor to the plasma chamber; applying a power at a level greater than zero Watts (W) and converting the first polymer precursor to a first polymer precursor plasma; exposing the substrate to the first polymer precursor plasma; introducing a flow of a second polymer precursor to the plasma chamber; applying a power at a level greater than zero Watts (W) and converting the second polymer precursor to a second polymer precursor plasma; and exposing the substrate to the second polymer precursor plasma, wherein exposing the substrate to the first polymer precursor plasma forms a first polymer layer thereon and exposing the substrate to the second polymer precursor plasma forms a second polymer layer thereon, characterised by maintaining the power at a level greater than zero Watts (W) between exposing the substrate to the pre-treatment precursor plasma and exposing the substrate to the first polymer precursor plasma and between exposing the substrate to the first polymer precursor plasma and exposing the substrate to the second polymer precursor plasma. providing a substrate to be coated within a plasma chamber; introducing a flow of a pre-treatment precursor to the plasma chamber; applying a power at a level greater than zero Watts (W) and converting the pre-treatment precursor to a pre-treatment precursor plasma; exposing the substrate to the pre-treatment precursor plasma; introducing a flow of a first polymer precursor to the plasma chamber; applying a power at a level greater than zero Watts (W) and converting the first polymer precursor to a first polymer precursor plasma; exposing the substrate to the first polymer precursor plasma; introducing a flow of a second polymer precursor to the plasma chamber; applying a power at a level greater than zero Watts (W) and converting the second polymer precursor to a second polymer precursor plasma; and exposing the substrate to the second polymer precursor plasma,
A device for exciting objects with an excitation radiation and for detecting a photoluminescence radiation emitted by the objects after the absorption of the excitation radiation, comprising: - a wall intended to come into contact with the objects; - a first organic light-emitting diode for emitting the excitation radiation and transparent to the photoluminescence radiation; - an optical resonator tuned to the wavelength of the photoluminescence radiation and located on the side of the first organic light-emitting diode opposite to the wall, the optical resonator comprising two two-way mirrors and an organic or inorganic layer between said two two-way mirrors, the first organic light-emitting diode comprising an electrode corresponding to one of the two-way mirrors ; and - at least one first sensor of the photoluminescence radiation arranged on the side of the optical resonator opposite to the first organic light-emitting diode. - a wall intended to come into contact with the objects; - a first organic light-emitting diode for emitting the excitation radiation and transparent to the photoluminescence radiation; - an optical resonator tuned to the wavelength of the photoluminescence radiation and located on the side of the first organic light-emitting diode opposite to the wall, the optical resonator comprising two two-way mirrors and an organic or inorganic layer between said two two-way mirrors, the first organic light-emitting diode comprising an electrode corresponding to one of the two-way mirrors ; and - at least one first sensor of the photoluminescence radiation arranged on the side of the optical resonator opposite to the first organic light-emitting diode.
A lithographic printing plate precursor including a support and a coating comprising a polymerisable compound, a photoinitiator, optionally a sensitizer and a polymeric binder, said binder being present, at least partially, as discrete particles, characterized in that the discrete particles comprise a crosslinked hydrophobic polymer backbone and a plurality of hydrophobic pendant grafts.
Method for machining a wall of a cylinder of an internal combustion engine, with circumferential grooves being machined into the wall, characterized in that at least one annular saw blade which is provided with a large number of cutting teeth on its circumference is used to make the grooves , the saw blade being moved so as to rotate about its longitudinal axis and being moved on an annular path , the annular path not being circular.
A method for identifying a free fatty acid or LDL in a liquid, comprising: placing said liquid on a water-repellant surface as a droplet (s100); obtaining a magnified image from an image of said droplet (s200); obtaining a contact diameter (do) from said magnified image (s300); obtaining a contact diameter, d ( t ) , after the lapse of predetermined time ( t ) from said magnified image (s400); and calculating a contact area diffusion factor (CADF) by substituting said d ( t ) and do for the following equation 1 (s500); CADF = d t 2 − d 0 2 d 0 2 × 100 where d ( t ) is the contact diameter of said droplet after the lapse of time, t, and d 0 is the initial contact diameter, and; said free fatty acid or LDL is determined to be present in said liquid when the value of CADF is positive. placing said liquid on a water-repellant surface as a droplet (s100); obtaining a magnified image from an image of said droplet (s200); obtaining a contact diameter (do) from said magnified image (s300); obtaining a contact diameter, d ( t ) , after the lapse of predetermined time ( t ) from said magnified image (s400); and calculating a contact area diffusion factor (CADF) by substituting said d ( t ) and do for the following equation 1 (s500); CADF = d t 2 − d 0 2 d 0 2 × 100 where d ( t ) is the contact diameter of said droplet after the lapse of time, t, and d 0 is the initial contact diameter, and; said free fatty acid or LDL is determined to be present in said liquid when the value of CADF is positive.
A method of producing an information code by an information code producing apparatus , cells being arranged in a code area (REG) of a medium (R), the cells functioning as a unit of information, wherein the method comprises: arranging, in the code area, a specification pattern region in which specification patterns having predetermined shapes are arranged in the code area, the specification patterns including patterns indicating a position of the code area on the medium; arranging, in the code area, a data recording region and an error correction code recording region in the code area, data coded is recorded in the data recording region by a plurality of types of the cells, error correction codes being recorded in the error correction code recording region by the plurality of types of cells; arranging a canvas area at a position in the code area, the position being located outside the specification pattern region in the code area, the canvas area having a size larger in area than a single cell; the canvas area being arranged using a method which is different from a method of recording the data into the data recording region such that, at least one of recording data and displaying a design is enabled in the canvas area, the design being given independently of the cells arranged in the data recording region; and recording format information of the code at predetermined positions in the code area in a specified format configuration, the predetermined positions being outside the canvas area characterized in that the canvas area is excluded from error correction being performed on the basis of the error correction codes. arranging, in the code area, a specification pattern region in which specification patterns having predetermined shapes are arranged in the code area, the specification patterns including patterns indicating a position of the code area on the medium; arranging, in the code area, a data recording region and an error correction code recording region in the code area, data coded is recorded in the data recording region by a plurality of types of the cells, error correction codes being recorded in the error correction code recording region by the plurality of types of cells; arranging a canvas area at a position in the code area, the position being located outside the specification pattern region in the code area, the canvas area having a size larger in area than a single cell; the canvas area being arranged using a method which is different from a method of recording the data into the data recording region such that, at least one of recording data and displaying a design is enabled in the canvas area, the design being given independently of the cells arranged in the data recording region; and recording format information of the code at predetermined positions in the code area in a specified format configuration, the predetermined positions being outside the canvas area characterized in that the canvas area is excluded from error correction being performed on the basis of the error correction codes.
A light-emitting semiconductor device comprising: a semiconductor structure comprising: at least one III-P light emitting layer disposed between an n-type region and a p-type region ; and a GaAs x P 1-x p-contact layer , wherein x < 0.45; a cladding layer in direct contact to the light emitting layer; and a first metal contact in direct contact with the GaAs x P 1-x p-contact layer; and a second metal contact electrically connected to the n-type region; wherein, the GaAs x P 1-x material is in the indirect bandgap region to minimize absorption, the first and second metal contacts are formed on a same side of the semiconductor structure, the GaAs x P 1-x p-contact layer has a graded composition x, and a region with a graded composition is disposed between the cladding layer and the GaAs x P 1-x contact layer, characterized in that the region with graded composition is (Al x Ga 1-x ) 0.5 In 0.5 P, such that the valence band of a GAsP contact layer aligns more favorably with that of the transition layer in the p-type region . a semiconductor structure comprising: at least one III-P light emitting layer disposed between an n-type region and a p-type region ; and a GaAs x P 1-x p-contact layer , wherein x < 0.45; a cladding layer in direct contact to the light emitting layer; and at least one III-P light emitting layer disposed between an n-type region and a p-type region ; and a GaAs x P 1-x p-contact layer , wherein x < 0.45; a cladding layer in direct contact to the light emitting layer; and a first metal contact in direct contact with the GaAs x P 1-x p-contact layer; and a second metal contact electrically connected to the n-type region; wherein, the GaAs x P 1-x material is in the indirect bandgap region to minimize absorption, the first and second metal contacts are formed on a same side of the semiconductor structure, the GaAs x P 1-x p-contact layer has a graded composition x, and a region with a graded composition is disposed between the cladding layer and the GaAs x P 1-x contact layer, characterized in that the region with graded composition is (Al x Ga 1-x ) 0.5 In 0.5 P, such that the valence band of a GAsP contact layer aligns more favorably with that of the transition layer in the p-type region .
A heat transfer medium having a melting composition, the heat transfer medium comprising: alkali metal chloride, first alkali metal carbonate, second alkali metal carbonate, and alkali metal hydroxide.
A heater comprising: a heating element ; a power supply including a high voltage power and a low voltage power; and a voltage selector configured to select the high voltage power or the low voltage power to the heating element , characterized in that the voltage selector is configured to select the high voltage power or the low voltage power based on a temperature of the heating element , and the voltage selector is configured to switch the power supply from the high voltage power to the low voltage power when the temperature of the heating element exceeds a threshold. a heating element ; a power supply including a high voltage power and a low voltage power; and a voltage selector configured to select the high voltage power or the low voltage power to the heating element , characterized in that the voltage selector is configured to select the high voltage power or the low voltage power based on a temperature of the heating element , and the voltage selector is configured to switch the power supply from the high voltage power to the low voltage power when the temperature of the heating element exceeds a threshold.