mhurhangee/ep-ind-claims huggingface dataset:
A laundry dryer comprising a body, a tub that is disposed in the body, wherein the drying process is performed, an opening providing access into the tub, a door covering the opening and a door housing that is disposed on the front wall of the body, that surrounds the opening and upon which a portion of the inner surface of the door bears, characterized by - at least one detection means that is disposed on the door or the door housing and that provides the measurement of the distance between the door and the door housing, - a control unit that compares the distance between the door and the door housing measured by the detection means with a first limit distance value predetermined by the producer and corresponding to the position wherein the door is completely closed, and that controls the openness status of the door according to the result of the comparison, - the control unit that enables the tub to be rotated in a direction opposite to the previous rotation direction if the distance measured by the detection means a) is between the first limit distance value and a second limit distance value predetermined by the producer and corresponding to the position wherein the door is open, or b) is larger than the first limit distance value and tends to increase, i.e. that the value of the distance detected is larger than the previous values of the distance detected, for a duration predetermined by the producer. - at least one detection means that is disposed on the door or the door housing and that provides the measurement of the distance between the door and the door housing, - a control unit that compares the distance between the door and the door housing measured by the detection means with a first limit distance value predetermined by the producer and corresponding to the position wherein the door is completely closed, and that controls the openness status of the door according to the result of the comparison, - the control unit that enables the tub to be rotated in a direction opposite to the previous rotation direction if the distance measured by the detection means a) is between the first limit distance value and a second limit distance value predetermined by the producer and corresponding to the position wherein the door is open, or b) is larger than the first limit distance value and tends to increase, i.e. that the value of the distance detected is larger than the previous values of the distance detected, for a duration predetermined by the producer. a) is between the first limit distance value and a second limit distance value predetermined by the producer and corresponding to the position wherein the door is open, or b) is larger than the first limit distance value and tends to increase, i.e. that the value of the distance detected is larger than the previous values of the distance detected, for a duration predetermined by the producer.
A tablet comprising granules A containing erythritol and crystalline cellulose; granules B having a particle size of 700 μm or less containing core particles 10-500 μm in diameter, a drug, and a film-coating layer; anhydrous calcium hydrogen phosphate; and crystalline cellulose.
A system of a machine, the system comprising: a network of a plurality of nodes (68a, 68b) distributed throughout the machine, each of the nodes operable to communicate through a plurality of electromagnetic signals; a controller operable to communicate with the network of nodes (68a, 68b) through the electromagnetic signals; a plurality of waveguides (70-73; 202, 204) configured to guide transmission of the electromagnetic signals between the controller and one or more of the nodes (68a, 68b); and a radio frequency-based repeater coupled to at least two of the waveguides (72, 73; 202, 203) in the network between the controller and at least one of the nodes (68a, 68b), the radio frequency-based repeater configured to receive a portion of the electromagnetic signals in a first waveguide (72; 202), boost a transmission characteristic of the portion of the electromagnetic signals in a second waveguide (73; 203); characterized in that the radio frequency-based repeater is configured to refocus transmission in the second waveguide through a directed antenna. a network of a plurality of nodes (68a, 68b) distributed throughout the machine, each of the nodes operable to communicate through a plurality of electromagnetic signals; a controller operable to communicate with the network of nodes (68a, 68b) through the electromagnetic signals; a plurality of waveguides (70-73; 202, 204) configured to guide transmission of the electromagnetic signals between the controller and one or more of the nodes (68a, 68b); and a radio frequency-based repeater coupled to at least two of the waveguides (72, 73; 202, 203) in the network between the controller and at least one of the nodes (68a, 68b), the radio frequency-based repeater configured to receive a portion of the electromagnetic signals in a first waveguide (72; 202), boost a transmission characteristic of the portion of the electromagnetic signals in a second waveguide (73; 203); characterized in that the radio frequency-based repeater is configured to refocus transmission in the second waveguide through a directed antenna.
Method for carrying out a voice conference with at least three voice terminals (A, B, C,...) in a communication system, wherein the voice terminals (A, B, C,...) in each case comprise - a receiving channel for receiving coded voice data produced in the voice conference for outputting voice signals formed by decoding of the received voice data at the respective voice terminal, and - a recording channel for providing coded voice data for the voice conference, wherein the voice data to be provided are formed by coding from voice signals recorded at the respective voice terminal, wherein - at least one of the voice terminals (A, B, C,...) is/are associated at least temporarily thereby with a first group, - for which the voice data provided via its respective recording channels are decoded in each case into individual voice signals, - these individual voice signals are superposed to form a sum voice signal and the sum voice signal is coded into first sum voice data, - at least two of the voice terminals (A, B, C,...) are associated at least temporarily with a second group, so that the second group comprises only voice terminals (A, B, C,...), wherein an extensive inactivity at their respective recording channels is recognized, and wherein - the first sum voice data are supplied to the voice terminals (A, B, C,...) associated with the second group, via their respective receiving channels for a respective output of the first sum voice data, characterized in that, for one of the voice terminals (A, B, C,...) of the first group, a terminal-specific sum voice signal is formed by superposing the individual voice signals of the voice terminals (A, B, C,...) of the first group and is coded into terminal-specific sum voice data, and the coded terminal-specific sum voice data is supplied via the associated receiving channel of the voice terminal (A, B, C,...) for a terminal-specific output. - a receiving channel for receiving coded voice data produced in the voice conference for outputting voice signals formed by decoding of the received voice data at the respective voice terminal, and - a recording channel for providing coded voice data for the voice conference, wherein the voice data to be provided are formed by coding from voice signals recorded at the respective voice terminal, wherein - at least one of the voice terminals (A, B, C,...) is/are associated at least temporarily thereby with a first group, - for which the voice data provided via its respective recording channels are decoded in each case into individual voice signals, - these individual voice signals are superposed to form a sum voice signal and the sum voice signal is coded into first sum voice data, - at least two of the voice terminals (A, B, C,...) are associated at least temporarily with a second group, so that the second group comprises only voice terminals (A, B, C,...), wherein an extensive inactivity at their respective recording channels is recognized, and wherein - the first sum voice data are supplied to the voice terminals (A, B, C,...) associated with the second group, via their respective receiving channels for a respective output of the first sum voice data,
A rapamycin analog for use in the treatment of a cancer, wherein cells of the cancer contain a biomarker selected from the group consisting of a mTOR biomarker, which is a mTOR mutation of Q2223K, R2505P, L2431P, S2215F, V2406A, M2327I, L2230V, I2228T, L2220F, V2006L, T1977K, I1973F, F1888V, F1888I, F1888L, F1888L in combination with L2230V, C1483F, C1483Y, L1460P, A1459P, L1433S, A1 105P, or K860N; a mutation in one or more residues of amino acid residues 1382-1982 of the amino acid sequence of human mTOR set forth in NCBI Accession No. NP_004949 which increases mTOR activity, a mutation in one or more residues of amino acid residues 2182-2516 of the amino acid sequence of human mTOR set forth in NCBI Accession No. NP_004949 which increases mTOR activity or a combination thereof; a TSC1 biomarker, which is a TSC1 Q781* biomarker, TSC1 P31 1fs*4 biomarker, TSC1 1580fs*7 biomarker, TSC1 Q527* biomarker, TSC1 S334* biomarker and a combination thereof; a TSC2 biomarker, which is a TSC2 Q794* biomarker, TSC2 R611W biomarker, TSC2 S1498N biomarker and a combination thereof; and a combination thereof, wherein the cancer is renal cell carcinoma, and wherein the rapamycin analog is selected from the group consisting of sirolimus, everolimus, temsirolimus, deforolimus, and zotarolimus.
A semiconductor device comprising: a transistor comprising: a source electrode and a drain electrode; an oxide semiconductor layer overlapping with the source electrode and the drain electrode; and a gate insulating layer overlapping with the oxide semiconductor layer, and a capacitor, wherein one of the source electrode and the drain electrode of the transistor, and one electrode of the capacitor are electrically connected to each other, and wherein the oxide semiconductor layer comprises crystals whose c-axis is oriented in a direction perpendicular to a surface of the oxide semiconductor layer. a source electrode and a drain electrode; an oxide semiconductor layer overlapping with the source electrode and the drain electrode; and a gate insulating layer overlapping with the oxide semiconductor layer, and a capacitor, wherein one of the source electrode and the drain electrode of the transistor, and one electrode of the capacitor are electrically connected to each other, and wherein the oxide semiconductor layer comprises crystals whose c-axis is oriented in a direction perpendicular to a surface of the oxide semiconductor layer.
A computer-implemented method for automatic calibration of multiple cameras (110, 112), in a user device, that use near-infrared illuminators, the method comprising: receiving a pair of dot images from a stereo near-infrared - NIR - camera system, each dot image of the pair of dot images comprising a dot pattern corresponding to a plurality of NIR dots projected onto a subject by a dot projector and captured by the stereo NIR camera system; normalizing a contrast of each dot image to provide a pair of normalized dot images; using the same pair of normalized dot images as separate inputs to a dot pipeline and a flood pipeline; in the dot pipeline, detecting dot features in each of the normalized dot images; in the flood pipeline: detecting flood features in local regions of each of the normalized dot images, the flood features corresponding to feature-point locations and descriptors of surrounding context of the feature-point locations; and determining flood-feature matches based on a comparison of the flood features between the pair of normalized dot images; using the flood-feature matches determined in the flood pipeline for the pair of normalized dot images to disambiguate the dot features detected in the dot pipeline for the pair of normalized dot images and determine dot-feature correspondences between the pair of normalized dot images; and determining updated-calibration parameters for the stereo near-infrared camera system based on the dot-feature correspondences. receiving a pair of dot images from a stereo near-infrared - NIR - camera system, each dot image of the pair of dot images comprising a dot pattern corresponding to a plurality of NIR dots projected onto a subject by a dot projector and captured by the stereo NIR camera system; normalizing a contrast of each dot image to provide a pair of normalized dot images; using the same pair of normalized dot images as separate inputs to a dot pipeline and a flood pipeline; in the dot pipeline, detecting dot features in each of the normalized dot images; in the flood pipeline: detecting flood features in local regions of each of the normalized dot images, the flood features corresponding to feature-point locations and descriptors of surrounding context of the feature-point locations; and determining flood-feature matches based on a comparison of the flood features between the pair of normalized dot images; detecting flood features in local regions of each of the normalized dot images, the flood features corresponding to feature-point locations and descriptors of surrounding context of the feature-point locations; and determining flood-feature matches based on a comparison of the flood features between the pair of normalized dot images; using the flood-feature matches determined in the flood pipeline for the pair of normalized dot images to disambiguate the dot features detected in the dot pipeline for the pair of normalized dot images and determine dot-feature correspondences between the pair of normalized dot images; and determining updated-calibration parameters for the stereo near-infrared camera system based on the dot-feature correspondences.
An amphibian for use on land and water, comprising: a hull (2, 2A); at least one retractable suspension apparatus which is movable from a vehicle supporting position to a retracted position; wherein the retractable suspension apparatus comprising upper and lower suspension arms (8, 9, 21, 22) that are pivotably connected at inboard ends to a support structure and are pivotably connected at outboard ends with a suspension upright (7, 7A, 20), the upper suspension arm being pivotably connected to the suspension upright by a first, upper pivot connection and the lower suspension arm being pivotably connected to the suspension upright by a second, lower pivot connection; the suspension upright (7, 7A, 20) extending from the second connection, in a direction away from the first connection to a wheel hub mount location at which the wheel hub is rotatably mounted on the suspension upright (7, 7A, 20) at a location below the first and second pivot connections; the suspension upright (7, 7A, 20) when deployed in land use extending externally of the hull (2, 2A); the wheel hub is driven to rotate by a transmission relaying drive from a prime mover of the amphibian, wherein the transmission has an input drive at a first height stepped down to an output drive at a lower height, and wherein the input drive is taken from a location at or above the lower pivot connection. a hull (2, 2A); at least one retractable suspension apparatus which is movable from a vehicle supporting position to a retracted position; wherein the retractable suspension apparatus comprising upper and lower suspension arms (8, 9, 21, 22) that are pivotably connected at inboard ends to a support structure and are pivotably connected at outboard ends with a suspension upright (7, 7A, 20), the upper suspension arm being pivotably connected to the suspension upright by a first, upper pivot connection and the lower suspension arm being pivotably connected to the suspension upright by a second, lower pivot connection; the suspension upright (7, 7A, 20) extending from the second connection, in a direction away from the first connection to a wheel hub mount location at which the wheel hub is rotatably mounted on the suspension upright (7, 7A, 20) at a location below the first and second pivot connections; the suspension upright (7, 7A, 20) when deployed in land use extending externally of the hull (2, 2A); the wheel hub is driven to rotate by a transmission relaying drive from a prime mover of the amphibian, wherein the transmission has an input drive at a first height stepped down to an output drive at a lower height, and wherein the input drive is taken from a location at or above the lower pivot connection.
A method for the decontamination of a habitat, comprising the steps of a) specifically identifying at least one contamination species in the habitat; b) selecting a decontaminant that is specifically effective against the identified contamination species, wherein biological and chemical decontaminants are provided, wherein specific bacteriophages and/or specific bacteriolytic proteins are provided as biological decontaminants, and wherein chemical decontaminants from the group including aldehydes, aldehyde derivatives, in particular formaldehyde derivatives, per compounds, in particular peracetic acid, phenols, phenol derivatives, alcohols, halogens, halogen compounds, hydrogen peroxide-based decontaminants, in particular acetyl hydroperoxide, are provided as chemical decontaminants; c) distributing the decontaminant in the habitat to be decontaminated; d) analyzing the decontamination state in the habitat, wherein biological decontaminants are selected in step b), given several specifically effective decontaminants. a) specifically identifying at least one contamination species in the habitat; b) selecting a decontaminant that is specifically effective against the identified contamination species, wherein biological and chemical decontaminants are provided, wherein specific bacteriophages and/or specific bacteriolytic proteins are provided as biological decontaminants, and wherein chemical decontaminants from the group including aldehydes, aldehyde derivatives, in particular formaldehyde derivatives, per compounds, in particular peracetic acid, phenols, phenol derivatives, alcohols, halogens, halogen compounds, hydrogen peroxide-based decontaminants, in particular acetyl hydroperoxide, are provided as chemical decontaminants; c) distributing the decontaminant in the habitat to be decontaminated; d) analyzing the decontamination state in the habitat,
A method for regenerating a waste organic zinc catalyst, the method comprising: (a) mixing and stirring a waste organic zinc catalyst with a dicarboxylic acid to generate a mixture; and (b) mixing and stirring the mixture with a zinc compound, wherein the dicarboxylic acid and the zinc compound are solid phases, respectively, wherein each of the steps (a) and (b) is alternately repeated at least twice, and wherein a mole ratio of the dicarboxylic acid and the zinc compound is 1:0.7 to 1:1.5. (a) mixing and stirring a waste organic zinc catalyst with a dicarboxylic acid to generate a mixture; and (b) mixing and stirring the mixture with a zinc compound, wherein the dicarboxylic acid and the zinc compound are solid phases, respectively, wherein each of the steps (a) and (b) is alternately repeated at least twice, and wherein a mole ratio of the dicarboxylic acid and the zinc compound is 1:0.7 to 1:1.5.
An assembly comprising: a stringer coupled to a composite structure of an aircraft, the stringer and the composite structure to form a stringer radius gap; and a gap filler disposed in the stringer radius gap, the gap filler including chopped fibers randomly distributed throughout substantially an entire volume of the gap filler such that more than 75% of the volume of the gap filler includes at least a portion of at least one fiber, said chopped fibers being oriented in multiple directions in any given plane of the gap filler; wherein the stringer includes an edge chamfer (226, 228) of between 13 degrees and 17 degrees. a stringer coupled to a composite structure of an aircraft, the stringer and the composite structure to form a stringer radius gap; and a gap filler disposed in the stringer radius gap, the gap filler including chopped fibers randomly distributed throughout substantially an entire volume of the gap filler such that more than 75% of the volume of the gap filler includes at least a portion of at least one fiber, said chopped fibers being oriented in multiple directions in any given plane of the gap filler; wherein the stringer includes an edge chamfer (226, 228) of between 13 degrees and 17 degrees.
A closed organic Rankine cycle power and regasification system for liquefied natural gas, comprising: a) a vaporizer in which liquid motive fluid is vaporized, said liquid motive fluid being a motive fluid liquefied by the LNG; b) a turbine for expanding the vaporized motive fluid; c) a condenser to which expanded motive fluid vapor is supplied, said condenser also being supplied with LNG for receiving heat from said expanded fluid vapor wherein said LNG condenses said expanded motive fluid exiting the turbine and whereby the temperature of the LNG increases as it flows through the condenser; d) a condenser/heater for condensing vapors extracted from said turbine and heating motive fluid condensate supplied to said condenser/heater from said condenser; e) a line through which said motive fluid flows from the outlet of said condenser to the inlet of said vaporizer; and f) a line for transmitting regasified LNG; characterised in that the system further comprises an integrated distillation system being supplied with LNG which is distillated and fractionated into its fractions, wherein at least one of said fractions comprise the motive fluid of said closed organic Rankine cycle power system. a) a vaporizer in which liquid motive fluid is vaporized, said liquid motive fluid being a motive fluid liquefied by the LNG; b) a turbine for expanding the vaporized motive fluid; c) a condenser to which expanded motive fluid vapor is supplied, said condenser also being supplied with LNG for receiving heat from said expanded fluid vapor wherein said LNG condenses said expanded motive fluid exiting the turbine and whereby the temperature of the LNG increases as it flows through the condenser; d) a condenser/heater for condensing vapors extracted from said turbine and heating motive fluid condensate supplied to said condenser/heater from said condenser; e) a line through which said motive fluid flows from the outlet of said condenser to the inlet of said vaporizer; and f) a line for transmitting regasified LNG;