mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated circuit for electrochemically measuring target analytes in a subject comprising: a. a recording module array coupled to a plurality of microelectrodes disposable on, in or adjacent to the subject for recording analog signals relating to chemically bonded analytes of the subject; b. an op-amp-less delta-sigma-ADC-based potentiostat circuit for providing a digitized representation of the recorded analog signals, the potentiostat circuit comprising: i. an op-amp less integrator circuit coupled to the recording module array, the integrator circuit comprising a grounded capacitor for integration of the recorded analog signal; ii. a comparator coupled to an output of the integrator circuit to reduce signal distortion thereof; iii. a digital-to-analog converter providing a negative feedback loop from an output of the comparator to the output of the integrator circuit; and iv. a pulse shaping block providing an output signal of the potentiostat; and c. an impedance spectroscopy circuit coupled to the output signal of the potentiostat comprising a 1 bit XOR gate and a counter for receiving a waveform and the output signal, the counter comprising a 1 bit multiplication of the output signal, the 1 bit XOR gate acting on the output signal of the potentiostat prior to the counter. a. a recording module array coupled to a plurality of microelectrodes disposable on, in or adjacent to the subject for recording analog signals relating to chemically bonded analytes of the subject; b. an op-amp-less delta-sigma-ADC-based potentiostat circuit for providing a digitized representation of the recorded analog signals, the potentiostat circuit comprising: i. an op-amp less integrator circuit coupled to the recording module array, the integrator circuit comprising a grounded capacitor for integration of the recorded analog signal; ii. a comparator coupled to an output of the integrator circuit to reduce signal distortion thereof; iii. a digital-to-analog converter providing a negative feedback loop from an output of the comparator to the output of the integrator circuit; and iv. a pulse shaping block providing an output signal of the potentiostat; and i. an op-amp less integrator circuit coupled to the recording module array, the integrator circuit comprising a grounded capacitor for integration of the recorded analog signal; ii. a comparator coupled to an output of the integrator circuit to reduce signal distortion thereof; iii. a digital-to-analog converter providing a negative feedback loop from an output of the comparator to the output of the integrator circuit; and iv. a pulse shaping block providing an output signal of the potentiostat; and c. an impedance spectroscopy circuit coupled to the output signal of the potentiostat comprising a 1 bit XOR gate and a counter for receiving a waveform and the output signal, the counter comprising a 1 bit multiplication of the output signal, the 1 bit XOR gate acting on the output signal of the potentiostat prior to the counter.
A display device comprising: a panel portion divided into an active region (AA) and a pad region (PA); and a thin film encapsulation layer provided on the panel portion with covering the active region (AA), wherein the active region (AA) is divided into a pixel portion (AAa) for displaying an image as a plurality of sub-pixels are arranged, each of the sub-pixels comprising at least an organic light emitting diode, OLED, , characterized in that it further comprises a capping layer on an upper surface of the OLED ; an optical member between the thin film encapsulation layer and the OLED , wherein the optical member includes: a cholesteric liquid crystal, CLC, layer on the capping layer ; a first quarter wave plate, QWP, layer on the CLC layer; a linear polarizer on the first QWP layer ; and a second QWP layer on the linear polarizer , and wherein the capping layer is formed to have a different thickness at each of the sub-pixels. a panel portion divided into an active region (AA) and a pad region (PA); and a thin film encapsulation layer provided on the panel portion with covering the active region (AA), wherein the active region (AA) is divided into a pixel portion (AAa) for displaying an image as a plurality of sub-pixels are arranged, each of the sub-pixels comprising at least an organic light emitting diode, OLED, , characterized in that it further comprises a capping layer on an upper surface of the OLED ; an optical member between the thin film encapsulation layer and the OLED , wherein the optical member includes: a cholesteric liquid crystal, CLC, layer on the capping layer ; a first quarter wave plate, QWP, layer on the CLC layer; a linear polarizer on the first QWP layer ; and a second QWP layer on the linear polarizer , and a cholesteric liquid crystal, CLC, layer on the capping layer ; a first quarter wave plate, QWP, layer on the CLC layer; a linear polarizer on the first QWP layer ; and a second QWP layer on the linear polarizer , and wherein the capping layer is formed to have a different thickness at each of the sub-pixels.
A manufacturing method of a three-dimensional memory device , comprising: forming an alternating dielectric stack on a substrate ; forming a vertical structure penetrating the alternating dielectric stack in a vertical direction perpendicular to a surface of the substrate ; removing a bottom dielectric layer of the alternating dielectric stack ; forming an epitaxial layer between the substrate and the alternating dielectric stack after removing the bottom dielectric layer ; and forming an insulating layer on the epitaxial layer , wherein the insulating layer is located between the epitaxial layer and the alternating dielectric stack , wherein the insulating layer is formed by performing an oxidation process to the epitaxial layer , wherein the epitaxial layer is separated from the alternating dielectric stack by a gap before forming the insulating layer , wherein a slit is formed vertically penetrating the alternating dielectric stack , wherein a recess is formed at the bottom of the slit by removing a part of the insulating layer and a part of the epitaxial layer , wherein a second doped region is formed in the epitaxial layer under the recess , wherein the epitaxial layer comprises a protruding part located between the insulating layer and the vertical structure in a horizontal direction orthogonal to the vertical direction. forming an alternating dielectric stack on a substrate ; forming a vertical structure penetrating the alternating dielectric stack in a vertical direction perpendicular to a surface of the substrate ; removing a bottom dielectric layer of the alternating dielectric stack ; forming an epitaxial layer between the substrate and the alternating dielectric stack after removing the bottom dielectric layer ; and forming an insulating layer on the epitaxial layer , wherein the insulating layer is located between the epitaxial layer and the alternating dielectric stack , wherein the insulating layer is formed by performing an oxidation process to the epitaxial layer , wherein the epitaxial layer is separated from the alternating dielectric stack by a gap before forming the insulating layer , wherein a slit is formed vertically penetrating the alternating dielectric stack , wherein a recess is formed at the bottom of the slit by removing a part of the insulating layer and a part of the epitaxial layer , wherein a second doped region is formed in the epitaxial layer under the recess , wherein the epitaxial layer comprises a protruding part located between the insulating layer and the vertical structure in a horizontal direction orthogonal to the vertical direction.
A device for manufacturing a semi-carbonized fuel of a biomass comprising: a drying device configured to heat and dry a biomass ; a pyrolysis device configured to pyrolytically decompose the biomass dried by the drying device ; and at least one combustion device configured to supply heat to the drying device and the pyrolysis device for heating; wherein the drying device is supplied with a part of a combustion exhaust gas generated in the combustion device , and a part of the exhaust gas is supplied to an outside of the drying device and is made to exchange heat with the biomass using indirect heat transfer across a partition wall of the drying device , and a remain part of the exhaust gas is supplied to an inside of the drying device to feed separated gas in drying generated in the drying device to the combustion device ; wherein the pyrolysis device is configured to be supplied with a part of the combustion exhaust gas generated in the combustion device , directly mix the supplied combustion exhaust gas and the biomass to heat and pyrolytically decompose the biomass , and supply a mixed gas of a generated pyrolysis gas and the combustion exhaust gas used for heating to the combustion device; wherein the combustion device is configured to be supplied with an air for combustion , combust the mixed gas supplied from the pyrolysis device and the gas supplied from the drying device , and generate the combustion exhaust gas . a drying device configured to heat and dry a biomass ; a pyrolysis device configured to pyrolytically decompose the biomass dried by the drying device ; and at least one combustion device configured to supply heat to the drying device and the pyrolysis device for heating; wherein the drying device is supplied with a part of a combustion exhaust gas generated in the combustion device , and a part of the exhaust gas is supplied to an outside of the drying device and is made to exchange heat with the biomass using indirect heat transfer across a partition wall of the drying device , and a remain part of the exhaust gas is supplied to an inside of the drying device to feed separated gas in drying generated in the drying device to the combustion device ; wherein the pyrolysis device is configured to be supplied with a part of the combustion exhaust gas generated in the combustion device , directly mix the supplied combustion exhaust gas and the biomass to heat and pyrolytically decompose the biomass , and supply a mixed gas of a generated pyrolysis gas and the combustion exhaust gas used for heating to the combustion device; wherein the combustion device is configured to be supplied with an air for combustion , combust the mixed gas supplied from the pyrolysis device and the gas supplied from the drying device , and generate the combustion exhaust gas .
A method for producing ether phospholipids derived from bivalve tissues comprising: (A) a step of processing total lipids of bivalve tissues with water-soluble ketone solvent to get bivalve phospholipids without neutral fat; (B) a step of providing extraction processing from the bivalve phospholipids without neutral fat obtained by the step (A) with a hydrophobic organic solvent to get a glycerophospholipid; and (C) a step of reacting the glycerophospholipids obtained by the step (B) with phospholipase A1 to decompose mixed diacyl-glycerophospholipids, followed by solution partitioning etc. to get a purified ether phospholipid. (A) a step of processing total lipids of bivalve tissues with water-soluble ketone solvent to get bivalve phospholipids without neutral fat; (B) a step of providing extraction processing from the bivalve phospholipids without neutral fat obtained by the step (A) with a hydrophobic organic solvent to get a glycerophospholipid; and (C) a step of reacting the glycerophospholipids obtained by the step (B) with phospholipase A1 to decompose mixed diacyl-glycerophospholipids, followed by solution partitioning etc. to get a purified ether phospholipid.
A method for risk assessment, diagnosis, early diagnosis or pathological staging of coronary heart disease, comprising a step of determining content of each biomarker of a biomarker composition in a urine sample of a subject; wherein, the biomarker composition comprises at least Biomarkers 1 to 3 of the following Biomarkers 1 to 8: Biomarker 1, which has a mass-to-charge ratio of 356.07 ± 0.4amu, and a retention time of 606.57 ± 60s; Biomarker 2, which has a mass-to-charge ratio of 284.18 ± 0.4amu, and a retention time of 538.89 ± 60s; Biomarker 3, which has a mass-to-charge ratio of 445.06 ± 0.4amu, and a retention time of 494.89 ± 60s; Biomarker 4, which has a mass-to-charge ratio of 268.19 ± 0.4amu, and a retention time of 589.52 ± 60s; Biomarker 5, which has a mass-to-charge ratio of 342.03 ± 0.4amu, and a retention time of 625.52 ± 60s; Biomarker 6, which has a mass-to-charge ratio of 324.0459 ± 0.4amu, and a retention time of 612.39 ± 60s; Biomarker 7, which has a mass-to-charge ratio of 324.0457 ± 0.4amu, and a retention time of 652.06 ± 60s; and Biomarker 8, which has a mass-to-charge ratio of 307.02 ± 0.4amu, and a retention time of 607.78 ± 60s; wherein a liquid chromatography-mass spectrometry method is used for determining content of each biomarker of the biomarker composition in a urine sample of a subject; wherein a C18 column and an elution solvent of 0.1% (v/v) formic acid in acetonitrile solution s used in the liquid chromatography-mass spectrometry method; wherein chromatographic conditions are as follows: Column: C18 column; mobile phase A: 0.1% formic acid aqueous solution, mobile phase B: 0.1% formic acid in acetonitrile solution; gradient elution program: 0 ∼ 3 min, 5% B, 3 ∼ 36 min, 5% ∼ 80% B, 36 ∼ 40 min, 80% ∼ 100% B, 40 ∼ 45 min, 100% B, 45 ∼ 50 min, 100% ∼ 5% B, 50 ∼ 60 min, 5% B; flow rate: 0.2 mL / min; injection volume: 20 μL. Biomarker 1, which has a mass-to-charge ratio of 356.07 ± 0.4amu, and a retention time of 606.57 ± 60s; Biomarker 2, which has a mass-to-charge ratio of 284.18 ± 0.4amu, and a retention time of 538.89 ± 60s; Biomarker 3, which has a mass-to-charge ratio of 445.06 ± 0.4amu, and a retention time of 494.89 ± 60s; Biomarker 4, which has a mass-to-charge ratio of 268.19 ± 0.4amu, and a retention time of 589.52 ± 60s; Biomarker 5, which has a mass-to-charge ratio of 342.03 ± 0.4amu, and a retention time of 625.52 ± 60s; Biomarker 6, which has a mass-to-charge ratio of 324.0459 ± 0.4amu, and a retention time of 612.39 ± 60s; Biomarker 7, which has a mass-to-charge ratio of 324.0457 ± 0.4amu, and a retention time of 652.06 ± 60s; and Biomarker 8, which has a mass-to-charge ratio of 307.02 ± 0.4amu, and a retention time of 607.78 ± 60s;
An apparatus comprising: means for receiving one or more reference signals characterized by further comprising means for determining one or more metrics from the one or more received reference signals; means for generating an input for a mapping model based on the one or more metrics; and means for providing the input to the mapping model to enable the mapping model to create a list of a plurality of configurations for signals that enable positioning that could be undertaken by a network, based on the generated input, wherein the configurations comprise one or more parameters for signals that enable positioning. means for receiving one or more reference signals characterized by further comprising means for determining one or more metrics from the one or more received reference signals; means for generating an input for a mapping model based on the one or more metrics; and means for providing the input to the mapping model to enable the mapping model to create a list of a plurality of configurations for signals that enable positioning that could be undertaken by a network, based on the generated input, wherein the configurations comprise one or more parameters for signals that enable positioning.
Harness comprising a belt and a pair of thigh straps connected to a strap , the harness comprising a ventral suspension point comprising a connector attached to the ventral part of the belt , the connector comprising: • a rod of longitudinal axis AA mechanically connecting the connector to the belt , • a first part comprising a connecting ring , and mounted movable in rotation with respect to the belt around the rod so that the first part is orientable at least in the direction of the thigh straps , the connecting ring being capable of receiving a carabiner or a quick link, • a C-shaped second part mounted movable in rotation around a second axis BB parallel to the axis AA and defining a closed contour with the axis BB, the connecting ring being movable in rotation with respect to the C-shaped second part , • the first part and C-shaped second part being able to be separated from one another so as to allow insertion of at least one accessory for progression on a rope in the C-shaped second part . • a rod of longitudinal axis AA mechanically connecting the connector to the belt , • a first part comprising a connecting ring , and mounted movable in rotation with respect to the belt around the rod so that the first part is orientable at least in the direction of the thigh straps , the connecting ring being capable of receiving a carabiner or a quick link, • a C-shaped second part mounted movable in rotation around a second axis BB parallel to the axis AA and defining a closed contour with the axis BB, the connecting ring being movable in rotation with respect to the C-shaped second part , • the first part and C-shaped second part being able to be separated from one another so as to allow insertion of at least one accessory for progression on a rope in the C-shaped second part .
A foaming and punching tool with spacers for producing foamed products made of integral foam, comprising a lower mold and a circumferential top piece present at the upper side thereof, which forms a groove together with said lower mold that faces the mold cavity, and an upper mold , wherein in a first closed condition said upper mold , due to spacers , penetrates into the mold cavity only to such an extent that the groove can receive foaming material , and in a second closed condition said upper mold penetrates deeper into the mold cavity after said spacers have been removed and optionally replaced by thinner spacers , and, on its way into the latter condition, can remove material present in the groove by punching in at least one step.
A method of preparing a catalyst for oxidative dehydrogenation, comprising: a step of preparing an aqueous metal precursor solution by adding a trivalent cationic iron (Fe) precursor and a divalent cationic metal (A) precursor to water; a step of coprecipitating iron and the metal (A) by adding the aqueous metal precursor solution and the basic aqueous solution to a coprecipitation bath containing an aqueous solution having a pH of 6 or more or water; and a step of performing burning of the coprecipitated coprecipitate, wherein a process of supplying inert gas or air to the coprecipitation bath is performed during the coprecipitation step; after completion of the coprecipitation step; or from during the coprecipitation step until after completion of the coprecipitation step, wherein in the step of coprecipitating, the aqueous metal precursor solution is supplied through a lower part of the coprecipitation bath, wherein the lower part is within a half of the distance from the bottom of the coprecipitation bath to the surface of the aqueous solution, and wherein the catalyst comprises an AFe 2 O 4 crystal structure. a step of preparing an aqueous metal precursor solution by adding a trivalent cationic iron (Fe) precursor and a divalent cationic metal (A) precursor to water; a step of coprecipitating iron and the metal (A) by adding the aqueous metal precursor solution and the basic aqueous solution to a coprecipitation bath containing an aqueous solution having a pH of 6 or more or water; and a step of performing burning of the coprecipitated coprecipitate, wherein a process of supplying inert gas or air to the coprecipitation bath is performed during the coprecipitation step; after completion of the coprecipitation step; or from during the coprecipitation step until after completion of the coprecipitation step, wherein in the step of coprecipitating, the aqueous metal precursor solution is supplied through a lower part of the coprecipitation bath, wherein the lower part is within a half of the distance from the bottom of the coprecipitation bath to the surface of the aqueous solution, and
An anti-vortex tube (AVT) retaining ring and bore basket (201, 202; 301; 501), comprising: a unitary body (210; 310; 510)) having an inboard portion (220; 320; 520), an outboard portion (230; 330; 530) and an intermediate portion (240; 340; 540), the inboard portion comprising a first ring-shaped body (221; 321; 521) with an outer diameter, the outboard portion being configured to support an array of AVTs and comprising a second ring-shaped body (232; 332; 532) with an inner diameter larger than the outer diameter of the first ring-shaped body, and the intermediate portion comprising a flange (241; 341; 541) extending between the outer and inner diameters of the first and second ring-shaped bodies, respectively, characterised in that : the unitary body (210; 310; 510) is configured for installation within one of front and rear blocks of a gas turbine engine compressor ; the inboard portion (220; 320; 520) is configured for engagement with an inner diameter of the one of the front and rear blocks of the gas tubine engine compressor, and the outboard portion (230; 330; 530) is configured for engagement with a boss of the one of the front and rear blocks of the gas turbine engine compressor. a unitary body (210; 310; 510)) having an inboard portion (220; 320; 520), an outboard portion (230; 330; 530) and an intermediate portion (240; 340; 540), the inboard portion comprising a first ring-shaped body (221; 321; 521) with an outer diameter, the outboard portion being configured to support an array of AVTs and comprising a second ring-shaped body (232; 332; 532) with an inner diameter larger than the outer diameter of the first ring-shaped body, and the intermediate portion comprising a flange (241; 341; 541) extending between the outer and inner diameters of the first and second ring-shaped bodies, respectively, characterised in that : the unitary body (210; 310; 510) is configured for installation within one of front and rear blocks of a gas turbine engine compressor ; the inboard portion (220; 320; 520) is configured for engagement with an inner diameter of the one of the front and rear blocks of the gas tubine engine compressor, and the outboard portion (230; 330; 530) is configured for engagement with a boss of the one of the front and rear blocks of the gas turbine engine compressor. the unitary body (210; 310; 510) is configured for installation within one of front and rear blocks of a gas turbine engine compressor ; the inboard portion (220; 320; 520) is configured for engagement with an inner diameter of the one of the front and rear blocks of the gas tubine engine compressor, and the outboard portion (230; 330; 530) is configured for engagement with a boss of the one of the front and rear blocks of the gas turbine engine compressor.