mhurhangee/ep-ind-claims huggingface dataset:
A fiber-bundle sub-assembly for a loose-tube optical fiber cable, comprising: an array of three or more loosely arranged color-coded fiber bundles comprising select relative positions, wherein the color-coded fiber bundles each contain at least one optical fiber, and wherein the array has a central axis and is made up of a first set of color-coded fiber bundles and a second set of color-coded fiber bundles on respectively first and second opposite sides of the array: a plurality of first and second connecting spans that run between and that are attached to anchors on the first and second opposite sides of the array respectively, wherein the anchors are axially staggered; and the first connecting span being attached to each of the color-coded fiber bundles in the first set of color-coded fiber bundles and the second connecting span being attached to each of the color-coded fiber bundles in the second set of color-coded fiber 24 bundles to maintain the select relative positions of the color-coded fiber bundles. an array of three or more loosely arranged color-coded fiber bundles comprising select relative positions, wherein the color-coded fiber bundles each contain at least one optical fiber, and wherein the array has a central axis and is made up of a first set of color-coded fiber bundles and a second set of color-coded fiber bundles on respectively first and second opposite sides of the array: a plurality of first and second connecting spans that run between and that are attached to anchors on the first and second opposite sides of the array respectively, wherein the anchors are axially staggered; and the first connecting span being attached to each of the color-coded fiber bundles in the first set of color-coded fiber bundles and the second connecting span being attached to each of the color-coded fiber bundles in the second set of color-coded fiber 24 bundles to maintain the select relative positions of the color-coded fiber bundles. a plurality of first and second connecting spans that run between and that are attached to anchors on the first and second opposite sides of the array respectively, wherein the anchors are axially staggered; and the first connecting span being attached to each of the color-coded fiber bundles in the first set of color-coded fiber bundles and the second connecting span being attached to each of the color-coded fiber bundles in the second set of color-coded fiber 24 bundles to maintain the select relative positions of the color-coded fiber bundles.
A method for producing a transgenic plant, comprising: (a) co-transforming plant cells with: i. a first nucleic acid construct comprising a first nucleic acid, said first nucleic acid comprising a nucleotide sequence of at least 100 contiguous nucleotides, said nucleotide sequence possessing at least 50% sequence identity over its entire length to a native ribosomal DNA (rDNA) sequence of said plant cells; and ii. a second nucleic acid construct, said second nucleic acid construct comprising a coding sequence operably linked to one or more regulatory elements for directing expression of said coding sequence in said plant cells; thereby obtaining transgenic plant cells; (b) regenerating a plurality of transgenic plants from said transgenic plant cells; and (c) selecting from said plurality of transgenic plants a transgenic plant wherein said second nucleic construct acid is amplified, and a plurality of said second nucleic acid constructs are stably integrated into or adjacent to native rDNA of said transgenic plant cells in sufficiently close proximity to one another that they segregate together as a single genetic locus. (a) co-transforming plant cells with: i. a first nucleic acid construct comprising a first nucleic acid, said first nucleic acid comprising a nucleotide sequence of at least 100 contiguous nucleotides, said nucleotide sequence possessing at least 50% sequence identity over its entire length to a native ribosomal DNA (rDNA) sequence of said plant cells; and ii. a second nucleic acid construct, said second nucleic acid construct comprising a coding sequence operably linked to one or more regulatory elements for directing expression of said coding sequence in said plant cells; thereby obtaining transgenic plant cells; i. a first nucleic acid construct comprising a first nucleic acid, said first nucleic acid comprising a nucleotide sequence of at least 100 contiguous nucleotides, said nucleotide sequence possessing at least 50% sequence identity over its entire length to a native ribosomal DNA (rDNA) sequence of said plant cells; and ii. a second nucleic acid construct, said second nucleic acid construct comprising a coding sequence operably linked to one or more regulatory elements for directing expression of said coding sequence in said plant cells; (b) regenerating a plurality of transgenic plants from said transgenic plant cells; and (c) selecting from said plurality of transgenic plants a transgenic plant wherein said second nucleic construct acid is amplified, and a plurality of said second nucleic acid constructs are stably integrated into or adjacent to native rDNA of said transgenic plant cells in sufficiently close proximity to one another that they segregate together as a single genetic locus.
Sealing arrangement, consisting of a static seal (1, 10, 30) and two sealing surfaces, wherein the seal consists of a basic body (2, 11, 21, 31), and cutting edges (3, 12, 22, 32) are formed at two exterior surfaces (7, 8, 16, 17) of the basic body (2, 11, 21, 31) that are turned away from each other, and the exterior surfaces (7, 8, 16, 17) are arranged between the two sealing surfaces, so that a plurality of successive sealing contact areas are formed between the basic body of the seal and the sealing surfaces, wherein the cutting edges (3, 12, 22, 32) have a triangular cross-section, and one triangular surface of the cutting edges is oriented at right angles to the basic body (2, 11, 21, 31), wherein the tips of the cutting edges (3, 12, 22, 32) protrude from the exterior surfaces (7, 8, 16, 17) of the basic body (2, 11, 21, 31), and first and second grooves (4, 5, 13, 14, 23, 24, 33, 34) are formed between the cutting edges (3, 12, 22, 32), and wherein the first grooves (4, 13, 23, 33) have a rectangular cross-section, and the second grooves (5, 14, 24, 34) are embodied to be triangular or trapezoidal.
A method of coherently controlling irradiation of an object in an enclosed cavity by at least two radio frequency feeds (26A-D), the method comprising: setting an amplitude, a phase and a frequency for each of the at least two RF feeds (26A-D); actuating all of the at least two RF feeds (26A-D) with the respectively set amplitudes, phases and frequencies to irradiate the object; measuring a reflected power at each of the at least two RF feeds (26A-D); characterizing a complete vectorial scattering parameter matrix of the enclosed cavity while the object is being irradiated; and adjusting the power, the phase and the frequency for each of the at least two RF feeds (26A-D) based on the complete vectorial scattering matrix and values of the power, the phase and the frequency of the at least two RF feeds (26A-D) before adjusting; wherein the frequency for each of the at least two RF feeds (26A-D) is the same while one of a power and the phase for each is different; the method being characterized in that the method further comprises predicting a reflected power at each of the at least two RF feeds (26A-D) based on the complete scattering parameter matrix; the method further comprises comparing the measured reflected power at each of the at least two RF feeds (26A-D) with the predicted reflected power of the at least two RF feeds (26A-D), and if the comparison exceeds a predetermined threshold, then repeating the setting, actuating, measuring, and characterizing steps. setting an amplitude, a phase and a frequency for each of the at least two RF feeds (26A-D); actuating all of the at least two RF feeds (26A-D) with the respectively set amplitudes, phases and frequencies to irradiate the object; measuring a reflected power at each of the at least two RF feeds (26A-D); characterizing a complete vectorial scattering parameter matrix of the enclosed cavity while the object is being irradiated; and adjusting the power, the phase and the frequency for each of the at least two RF feeds (26A-D) based on the complete vectorial scattering matrix and values of the power, the phase and the frequency of the at least two RF feeds (26A-D) before adjusting; wherein the frequency for each of the at least two RF feeds (26A-D) is the same while one of a power and the phase for each is different; the method being characterized in that the method further comprises predicting a reflected power at each of the at least two RF feeds (26A-D) based on the complete scattering parameter matrix; the method further comprises comparing the measured reflected power at each of the at least two RF feeds (26A-D) with the predicted reflected power of the at least two RF feeds (26A-D), and if the comparison exceeds a predetermined threshold, then repeating the setting, actuating, measuring, and characterizing steps.
A method of electrically isolating a battery of a medical device, comprising: providing an insulation enclosure; providing the battery inside of the insulation enclosure, the battery having battery terminals; providing an adapter plate attached to the insulation enclosure; and attaching the adapter plate to the medical device while the battery is inside of the insulation enclosure and while the insulation enclosure is attached to the adapter plate with the battery terminals extending beyond the insulation enclosure and the adapter plate and into the medical device. providing an insulation enclosure; providing the battery inside of the insulation enclosure, the battery having battery terminals; providing an adapter plate attached to the insulation enclosure; and attaching the adapter plate to the medical device while the battery is inside of the insulation enclosure and while the insulation enclosure is attached to the adapter plate with the battery terminals extending beyond the insulation enclosure and the adapter plate and into the medical device.
A cover for a water pool, more particularly for a whirlpool, comprising at least one panel made from an extruded rigid polystyrene foam and coated at least in a section by a water-proof, organosoluble lacquer, characterized in that the lacquer has an acrylic base and is covered by a non-stick coating which is impermeable to the organic solvent of the lacquer.
A method for detecting metastatic castration-resistant prostate cancer (mCRPC) in a patient afflicted with prostate cancer comprising (a) performing a direct analysis comprising immunofluorescent staining and morphological characterization of nucleated cells in a blood sample obtained from the patient to detect circulating tumor cells, wherein the direct analysis means the detection of CTCs in the context of all surrounding nucleated cells present in the sample as opposed to after enrichment of the sample for CTCs prior to detection; and (b) determining presence of a CTC subpopulation associated with mCRPC wherein the presence of the CTC subpopulation associated with mCRPC is indicative of mCRPC; wherein the CTC subpopulation associated with mCRPC comprises cytokeratin negative (CK-) CTCs or small CTCs; and wherein the small CTCs are characterized by DAPI+CK+CD45- and small nuclear size similar to or smaller than surrounding white blood cells (WBCs). (a) performing a direct analysis comprising immunofluorescent staining and morphological characterization of nucleated cells in a blood sample obtained from the patient to detect circulating tumor cells, wherein the direct analysis means the detection of CTCs in the context of all surrounding nucleated cells present in the sample as opposed to after enrichment of the sample for CTCs prior to detection; and (b) determining presence of a CTC subpopulation associated with mCRPC
A clothes dryer, comprising an air circulation system and a refrigerant circulation system, the refrigerant circulation system comprising a compressor, a condenser, a throttling element and an evaporator; the air circulation system comprising a filter device, an air circulation power fan for supplying power of air circulation of the air circulation system, and a roller for accommodating objects to be dried; wherein, the condenser is configured to provide heat quantity, required for drying, to the roller; the clothes dryer further comprises a controller, a temperature sensor or a temperature-sensing element (101, 104), and a temperature and humidity sensing element (102, 103); the controller is configured to control an operation of the clothes dryer, which comprises controlling an operating condition of the refrigerant circulation system; the compressor is a variable speed compressor, and a rotation speed of the compressor is stepwise adjusted by the controller in operation of the clothes dryer; or the compressor is a fixed-frequency compressor, the throttling element is an electronic expansion valve, and an opening of the electronic expansion valve is stepwise adjusted by the controller; and the operation of the clothes dryer comprises a temperature rise phase of air, and a basic drying phase, and the compressor of the clothes dryer is configured to have a higher power consumption in the temperature rise phase than in the basic drying phase.
A method of determining a topology of a grid section of an AC power grid, the grid section comprising a grid connection point, at least one branch branching off from the grid connection point and including a plurality of energy consumption and/or generation units, and at least one measurement point in the at least one branch, the method comprising: - measuring connection power values of at least one of the plurality of energy consumption and/or generation units, and - measuring the grid voltage at the at least one measurement point; characterised by the further step of - determining dependencies of variations of the grid voltage at the at least one measurement point on variations of connection power values of at least some individual energy consumption and/or generation units of the plurality of energy consumption and/or generation units. - measuring connection power values of at least one of the plurality of energy consumption and/or generation units, and - measuring the grid voltage at the at least one measurement point; - determining dependencies of variations of the grid voltage at the at least one measurement point on variations of connection power values of at least some individual energy consumption and/or generation units of the plurality of energy consumption and/or generation units.
Device for testing the contents of a switch cabinet after the planning-based assembly of technical equipment components (2a - 2e) and their wiring via terminal connections provided for this purpose by means of marked electrical lines, comprising: - a camera unit for at least two-dimensional image acquisition of the components (2a - 2e) completely mounted and wired on a mounting plate of a switch cabinet, - an evaluation unit for carrying out a comparison between an image layout of the actual state based on the image acquisition with a provided planning layout of the target state, at least with regard to: a) a completeness and location of the installed components (2a - 2e), b) the assignment of electrical terminal connections, c) the wiring courses of the electrical lines, - an output unit for providing the test result on the structural consistency of the switch cabinet for an assessment with regard to delivery release or fault rectification, characterised in that the evaluation unit is configured to check not only the structural consistency of the switch cabinet but also the functional consistency by comparing the functionality produced by the components (2a - 2e) and their connection via the electrical lines with an electrical circuit diagram associated with the planning layout, and in that a simulation unit is provided which is configured to perform a simulation of various operating states of the switch cabinet over a predefined period of time on the basis of a positive structural and functional test. - a camera unit for at least two-dimensional image acquisition of the components (2a - 2e) completely mounted and wired on a mounting plate of a switch cabinet, - an evaluation unit for carrying out a comparison between an image layout of the actual state based on the image acquisition with a provided planning layout of the target state, at least with regard to: a) a completeness and location of the installed components (2a - 2e), b) the assignment of electrical terminal connections, c) the wiring courses of the electrical lines, a) a completeness and location of the installed components (2a - 2e), b) the assignment of electrical terminal connections, c) the wiring courses of the electrical lines, - an output unit for providing the test result on the structural consistency of the switch cabinet for an assessment with regard to delivery release or fault rectification, characterised in that the evaluation unit is configured to check not only the structural consistency of the switch cabinet but also the functional consistency by comparing the functionality produced by the components (2a - 2e) and their connection via the electrical lines with an electrical circuit diagram associated with the planning layout, and in that a simulation unit is provided which is configured to perform a simulation of various operating states of the switch cabinet over a predefined period of time on the basis of a positive structural and functional test.
A method for estimating the residual life of an in-service load cell, comprising the steps of: storing, in a memory, fatigue life reference data determined using a test load cell, wherein the fatigue life reference data characterizes a number of cycles in a characteristic life of the test load cell relative to an applied load magnitude; providing a predetermined number of data storage bins in a memory, each data storage bin of the predetermined number of data storage bins is representative of a predefined value range of peak loads across a load limit range of the in-service load cell; detecting peak loads applied to the in-service load cell, wherein the peak loads represent load peaks measured by the in-service load cell during use; storing each of the detected peak loads in an appropriate one of the data storage bins having a peak load range corresponding to the detected peak loads; calculating a number of load cycles of the in-service load cell based on a number of load peaks in the detected peak loads stored in each of the data storage bins; and calculating an estimate of the residual life of the in-service load cell from the number of cycles in the characteristic life in the fatigue life reference data and the calculated number of load cycles of the in-service load cell. storing, in a memory, fatigue life reference data determined using a test load cell, wherein the fatigue life reference data characterizes a number of cycles in a characteristic life of the test load cell relative to an applied load magnitude; providing a predetermined number of data storage bins in a memory, each data storage bin of the predetermined number of data storage bins is representative of a predefined value range of peak loads across a load limit range of the in-service load cell; detecting peak loads applied to the in-service load cell, wherein the peak loads represent load peaks measured by the in-service load cell during use; storing each of the detected peak loads in an appropriate one of the data storage bins having a peak load range corresponding to the detected peak loads; calculating a number of load cycles of the in-service load cell based on a number of load peaks in the detected peak loads stored in each of the data storage bins; and calculating an estimate of the residual life of the in-service load cell from the number of cycles in the characteristic life in the fatigue life reference data and the calculated number of load cycles of the in-service load cell.
A collection system for continuous collections of fractions from a flowstream exiting a supercritical fluid chromatography system, the collection system comprising: (i) a first back pressure regulator on the flowstream as it exits the chromatography system; (ii) a gas-liquid separator; and (iii) one or more fraction collectors, wherein the fraction collector is at a reduced pressure collection point, between 100 bar and atmospheric pressure. characterised in that: the gas-liquid separator further comprises a tapered and angled dripper having an outlet which introduces the flow into the separator at a tangential angle relative to a tangential plane at an impact point on the separator wall. (i) a first back pressure regulator on the flowstream as it exits the chromatography system; (ii) a gas-liquid separator; and (iii) one or more fraction collectors, wherein the fraction collector is at a reduced pressure collection point, between 100 bar and atmospheric pressure.
A method performed by a network operation management apparatus (30-1, 130A) configured for communication with a plurality of radio base stations comprising a first radio base station (10-1, 110) and a second radio base station (20-1, 120) neighboring the first radio base station, said method comprising: receiving, from the first base radio station, network measurement information; detecting (103, 403), based on the received network measurement information, occurrence of a failure in the first radio base station, and in response thereto: sending (104, 404) to the first radio base station an instruction for self-recovery activation; sending (105, 405) to the second radio base station alarm information indicating said occurrence of a failure; receiving from the first radio base station an indication that the first radio base station has completed self-recovery; and sending to the second radio base station, in response to receiving the indication that the first radio base station has completed self-recovery, an information that the first radio base station has completed self-recovery. sending (104, 404) to the first radio base station an instruction for self-recovery activation; sending (105, 405) to the second radio base station alarm information indicating said occurrence of a failure; receiving from the first radio base station an indication that the first radio base station has completed self-recovery; and sending to the second radio base station, in response to receiving the indication that the first radio base station has completed self-recovery, an information that the first radio base station has completed self-recovery.
A packaged IC comprising: a package having a die paddle, a signal lead, and a ground lead; and a die having a ground pad and a signal pad, the die being secured to the package; the signal pad being electrically connected to the signal lead, the ground pad being electrically connected to both the die paddle and the ground lead, wherein the die comprises a via extending from the ground pad, the via being electrically connected with the die paddle. a package having a die paddle, a signal lead, and a ground lead; and a die having a ground pad and a signal pad, the die being secured to the package; the signal pad being electrically connected to the signal lead, the ground pad being electrically connected to both the die paddle and the ground lead, wherein the die comprises a via extending from the ground pad, the via being electrically connected with the die paddle.