mhurhangee/patent-ind-claim-en huggingface dataset:
A solid state switching device, comprising an enclosure containing a heatsink having a generally planar base with a central mounting area on one side of the base , first and second groups of heat conductive fins extending from the base on opposite sides of the mounting area, and an outer wall spaced from and generally parallel to the base , with the fins in each of the two groups extending between the base and the outer wall to form open ended ducts between the fins, a solid state switching element mounted on the mounting area of the base beside one of the groups of fins and in heat conductive relationship with the heatsink, ventilation openings in the enclosure in axial alignment with the ducts in each of the two groups through which air can flow to remove heat from the heatsink by radiation and convection, and terminals accessible outside the enclosure for connecting the device to an electrical circuit controlled by the switching element.
A panel for forming part of a partition, the panel comprising: a central panel ; two support members disposed on opposed sides of the central panel , each of the two support members extending generally perpendicularly to a plane of the central panel , wherein a protruding portion of each of the two support members extends beyond each of two opposed surfaces of the central panel ; and a resiliently compressible portion arranged between the two support members such that a distance between the two support members can be reduced by compressing the resiliently compressible portion . a central panel ; two support members disposed on opposed sides of the central panel , each of the two support members extending generally perpendicularly to a plane of the central panel , wherein a protruding portion of each of the two support members extends beyond each of two opposed surfaces of the central panel ; and a resiliently compressible portion arranged between the two support members such that a distance between the two support members can be reduced by compressing the resiliently compressible portion .
A rotor assembly for a gas turbine engine comprising: an airfoil including an airfoil section extending from a root section , wherein the airfoil section (66A... 566A) extends between a leading edge (LE) and a trailing edge (TE) in a chordwise direction (C) and extends between a tip portion and the root section in a radial direction (R), and the airfoil section (66A... 566A) defines a pressure side (P) and a suction side (S) separated in a thickness direction (T); and at least one retention pin that extends through the root section to mechanically attach the root section to an array of annular flanges of a rotatable hub , characterised in that the at least one retention pin (68...468) defines an internal lubrication circuit including branched paths having outlets aligned with the flanges . an airfoil including an airfoil section extending from a root section , wherein the airfoil section (66A... 566A) extends between a leading edge (LE) and a trailing edge (TE) in a chordwise direction (C) and extends between a tip portion and the root section in a radial direction (R), and the airfoil section (66A... 566A) defines a pressure side (P) and a suction side (S) separated in a thickness direction (T); and at least one retention pin that extends through the root section to mechanically attach the root section to an array of annular flanges of a rotatable hub , characterised in that the at least one retention pin (68...468) defines an internal lubrication circuit including branched paths having outlets aligned with the flanges .
A method for producing sterile fish, said method comprising transfecting fertilized fish eggs with a gapmer that is effective to render individuals produced therefrom sterile by immersion in an aqueous immersion medium that comprises said gapmer, wherein the gapmer has a sequence suitable for targeting RNA of a gene selected from dead end (dnd), nanos, vasa, piwi, gnrh or fsh receptor, wherein the gapmer comprises a gap that comprises a continuous stretch of RNase H recruiting phosphorothioate-modified 2'-deoxynucleotides and wherein said gap is flanked by a 5' wing region and a 3' wing region, wherein the nucleotides in said wing regions are locked nucleic acids (LNAs) or 2'-alkylated RNA nucleotides, and wherein the gapmer is taken up into the eggs by gymnosis.
A system comprising: a variable displacement pump ; a metering valve in an output line for controlling outlet flow from the variable displacement pump to at least one fuel nozzle ; a bypass line connected for fluid communication from the output line to an input line in fluid communication with an inlet of the variable displacement pump for bypassing a portion of pump flow from the outlet of the variable displacement pump ; a pressure regulating valve in the bypass line configured to control pressure drop across the metering valve by bypassing a portion of the pump flow back through the variable displacement pump ; a position sensor operatively connected to sense position of a valve component of the pressure regulating valve ; and a control system operatively connected to receive input from the position sensor and operatively connected to control displacement of the variable displacement pump based on the position of the valve component. a variable displacement pump ; a metering valve in an output line for controlling outlet flow from the variable displacement pump to at least one fuel nozzle ; a bypass line connected for fluid communication from the output line to an input line in fluid communication with an inlet of the variable displacement pump for bypassing a portion of pump flow from the outlet of the variable displacement pump ; a pressure regulating valve in the bypass line configured to control pressure drop across the metering valve by bypassing a portion of the pump flow back through the variable displacement pump ; a position sensor operatively connected to sense position of a valve component of the pressure regulating valve ; and a control system operatively connected to receive input from the position sensor and operatively connected to control displacement of the variable displacement pump based on the position of the valve component.
A composition comprising an organic sunscreen and an SPF-boosting composition being of any of the following form: an aqueous system, a hot pour system, an emulsion, a gel, a stick, a spray, comprising: (i) nylon particles; (ii) silica particles; and (iii) barium sulfate particles, wherein the SPF-boosting composition provides an increase in SPF as compared to an otherwise identical combination lacking any one of the three components, (i)-(iii); wherein said nylon particles comprise from 1% to 10% by weight of the composition; said silica particles comprise from 0.5% to 5% by weight of the composition; and said barium sulfate particles comprise from 1% to 10% by weight of the composition. an aqueous system, a hot pour system, an emulsion, a gel, a stick, a spray, comprising: (i) nylon particles; (ii) silica particles; and (iii) barium sulfate particles, (i) nylon particles; (ii) silica particles; and (iii) barium sulfate particles, wherein the SPF-boosting composition provides an increase in SPF as compared to an otherwise identical combination lacking any one of the three components, (i)-(iii); wherein said nylon particles comprise from 1% to 10% by weight of the composition; said silica particles comprise from 0.5% to 5% by weight of the composition; and said barium sulfate particles comprise from 1% to 10% by weight of the composition.
A system comprising: a flow cell device having defined therein a fluid path , the flow cell device comprising: an input connection for receiving a fluid into the fluid path ; and an output connection for egress of the fluid from the fluid path ; a spherical lens coupled to the flow cell device , defining a portion of a boundary of the fluid path , and providing optical access to an analysis region of the fluid path ; and an optical analysis device and a connector , the connector providing a removable connection of the flow cell device to the optical analysis device that employs the optical access to the analysis region via the spherical lens to optically interrogate at least a portion of the fluid that passes through the analysis region ; whereby, the analysis device is configured to pass optical energy into the analysis region via the connector and the spherical lens and to receive optical energy from the analysis region via the same spherical lens and the same connector. an input connection for receiving a fluid into the fluid path ; and an output connection for egress of the fluid from the fluid path ; a spherical lens coupled to the flow cell device , defining a portion of a boundary of the fluid path , and providing optical access to an analysis region of the fluid path ; and an optical analysis device and a connector , the connector providing a removable connection of the flow cell device to the optical analysis device that employs the optical access to the analysis region via the spherical lens to optically interrogate at least a portion of the fluid that passes through the analysis region ; whereby, the analysis device is configured to pass optical energy into the analysis region via the connector and the spherical lens and to receive optical energy from the analysis region via the same spherical lens and the same connector.
Process for preparing an alkanesulphonic acid, comprising the steps of a) oxidizing at least one sulphur-containing starting compound with an oxidizing agent to give the corresponding alkanesulphonic acid, wherein the sulphur-containing starting compound is selected from the group consisting of alkyl mercaptan, dialkyl disulphide and dialkyl polysulphide having three to nine sulphur atoms, b) determining an S-alkyl alkanesulfonate as oxidation intermediate by means of UV-Vis spectroscopy, and a dialkyl disulphide and/or a dialkyl polysulphide as sulphur-containing starting compound by means of pulsed amperometric detection in the reaction output from step a), and c) supplying additional oxidizing agent in step a) to complete the oxidation reaction when, in step b), a sulphur-containing starting compound and/or an oxidation intermediate from the oxidation of the sulphur-containing starting compound to the corresponding alkanesulphonic acid has been determined. a) oxidizing at least one sulphur-containing starting compound with an oxidizing agent to give the corresponding alkanesulphonic acid, wherein the sulphur-containing starting compound is selected from the group consisting of alkyl mercaptan, dialkyl disulphide and dialkyl polysulphide having three to nine sulphur atoms, b) determining an S-alkyl alkanesulfonate as oxidation intermediate by means of UV-Vis spectroscopy, and a dialkyl disulphide and/or a dialkyl polysulphide as sulphur-containing starting compound by means of pulsed amperometric detection in the reaction output from step a), and c) supplying additional oxidizing agent in step a) to complete the oxidation reaction when, in step b), a sulphur-containing starting compound and/or an oxidation intermediate from the oxidation of the sulphur-containing starting compound to the corresponding alkanesulphonic acid has been determined.
A method of producing a plant with an increased seed size or mass of seeds per unit area comprising: introducing into a plant cell through genetic engineering a heterologous nucleic acid which encodes a mutant DA1 protein, and regenerating the plant from the plant cell, wherein said mutant DA1 protein comprises an amino acid sequence having at least 80% identity to a DA1 sequence selected from the group consisting of SEQ ID NOS: 4 to 27, said mutant DA1 protein having a mutation of a cysteine or histidine residue corresponding to C172, C175, H193, C196, C199, C202, H220 and C223 of SEQ ID NO: 8, or a cysteine or histidine residue corresponding to C232, C235, H252, C260, H263, C271, C274, C294 and C297 of SEQ ID NO: 8. introducing into a plant cell through genetic engineering a heterologous nucleic acid which encodes a mutant DA1 protein, and regenerating the plant from the plant cell, wherein said mutant DA1 protein comprises an amino acid sequence having at least 80% identity to a DA1 sequence selected from the group consisting of SEQ ID NOS: 4 to 27, said mutant DA1 protein having a mutation of a cysteine or histidine residue corresponding to C172, C175, H193, C196, C199, C202, H220 and C223 of SEQ ID NO: 8, or a cysteine or histidine residue corresponding to C232, C235, H252, C260, H263, C271, C274, C294 and C297 of SEQ ID NO: 8.
A riveting device comprising a guide tube (T) and a container (Z), wherein a clamp (K) is provided at one end of the guide tube (T), the guide tube (T) extending at the opposite end into the container (Z), wherein the guide tube (T) is longitudinally movable relative to a frame (R) of said riveting device, and further comprising a permanent magnet (M) configured to attract a rivet mandrel inserted into a mouth of the riveting device characterized in that the permanent magnet is further configured to pull a torn-off mandrel into an area of at least one cylindrical coil (C) encircling the guide tube (T), said at least one electrical coil (C) being configured to create an electromagnetic field which superimposes on the magnetic field of the permanent magnet and produces a force accelerating the torn-off mandrel into the container (Z), when said at least one cylindrical coil (C) is fed by a short and high current pulse.
A quality control method for a diagnostic analyzer , comprising: performing a quality control test or a plurality of specimen tests; determining, with a controller , that a quality control test result or a plurality of specimen test results is outside of a threshold; monitoring one or more mechanical devices of the diagnostic analyzer with the controller ; and initiating a calibration procedure in response to the quality control test result or the plurality of specimen test results being outside of the threshold and receiving the error code characterized in that receiving, by the controller , an error code indicating an error in a mechanical device of the one or more mechanical devices, wherein one or more mechanical devices includes one or more motors and wherein the error code indicates an error in one or more motors , performing a quality control test or a plurality of specimen tests; determining, with a controller , that a quality control test result or a plurality of specimen test results is outside of a threshold; monitoring one or more mechanical devices of the diagnostic analyzer with the controller ; and initiating a calibration procedure in response to the quality control test result or the plurality of specimen test results being outside of the threshold and receiving the error code characterized in that receiving, by the controller , an error code indicating an error in a mechanical device of the one or more mechanical devices, wherein one or more mechanical devices includes one or more motors and wherein the error code indicates an error in one or more motors ,
A data processing method, applied to a network device, wherein the method comprises: receiving a first data packet, wherein the first data packet comprises a source internet protocol IP address and a first verification code; obtaining a first key; generating a second verification code based on the source IP address and the first key; and if the second verification code is the same as the first verification code, determining that the first data packet is valid, wherein the generating a second verification code based on the source IP address and the first key comprises: generating the second verification code based on the source IP address, the first key, and any one or more of a locator, a service identifier, and a first dynamic parameter. receiving a first data packet, wherein the first data packet comprises a source internet protocol IP address and a first verification code; obtaining a first key; generating a second verification code based on the source IP address and the first key; and if the second verification code is the same as the first verification code, determining that the first data packet is valid, wherein the generating a second verification code based on the source IP address and the first key comprises: generating the second verification code based on the source IP address, the first key, and any one or more of a locator, a service identifier, and a first dynamic parameter.
A vane arm connection system for a gas turbine engine , comprising: a vane stem having a head with flat contact surfaces ; a vane arm having a claw , the claw comprising opposed arms having inwardly facing surfaces engaging the flat contact surfaces of the head ; and a torque transfer member having a body defining an opening for engaging the flat contact surfaces of the head of the vane stem , and at least one arm extending from the body to contact the claw , wherein the engagement between the flat contact surfaces and the opening transfers load from torque away from the inwardly facing surfaces , wherein the opposed arms of the claw have proximal and distal surfaces, facing toward and away from the vane arm, and characterized in that , at least one arm of the torque transfer member extends from the torque transfer member to contact at least one of the proximal and distal surfaces, wherein the claw has an upper body defining an opening for securing to the vane stem and two claw arms extending downwardly from the upper body and engaging the flat contact surfaces of the head , wherein the torque transfer member is positioned below the upper body of the claw , and within the claw arms , and wherein the at least one arm of the torque transfer member extends outside of the claw arms to contact the at least one of the proximal and distal surfaces. a vane stem having a head with flat contact surfaces ; a vane arm having a claw , the claw comprising opposed arms having inwardly facing surfaces engaging the flat contact surfaces of the head ; and a torque transfer member having a body defining an opening for engaging the flat contact surfaces of the head of the vane stem , and at least one arm extending from the body to contact the claw , wherein the engagement between the flat contact surfaces and the opening transfers load from torque away from the inwardly facing surfaces , wherein the opposed arms of the claw have proximal and distal surfaces, facing toward and away from the vane arm, and characterized in that , at least one arm of the torque transfer member extends from the torque transfer member to contact at least one of the proximal and distal surfaces, wherein the claw has an upper body defining an opening for securing to the vane stem and two claw arms extending downwardly from the upper body and engaging the flat contact surfaces of the head , wherein the torque transfer member is positioned below the upper body of the claw , and within the claw arms , and wherein the at least one arm of the torque transfer member extends outside of the claw arms to contact the at least one of the proximal and distal surfaces.
A package structure of a display component , comprising: a base substrate , a display component arranged on a surface of the base substrate , and an package layer covering the display component , wherein the package layer comprises a second inorganic layer , an organic layer , and a first inorganic layer capable of reducing an amount of charges to be trapped sequentially stacked along a direction toward the display component , characterized in that the package layer further comprises an organic buffer layer arranged between the first inorganic layer and the organic layer , wherein the first inorganic layer has a thickness of less than 1 μm, the organic layer has a thickness of between 1 μm and 20 μm, the second inorganic layer has a thickness of less than 1 μm, and the organic buffer layer has a thickness of between 0.1 μm and 0.3 μm, and wherein the first inorganic layer is an oxynitride layer with an atomic percentage of oxygen greater than 15%. characterized in that the package layer further comprises an organic buffer layer arranged between the first inorganic layer and the organic layer , wherein the first inorganic layer has a thickness of less than 1 μm, the organic layer has a thickness of between 1 μm and 20 μm, the second inorganic layer has a thickness of less than 1 μm, and the organic buffer layer has a thickness of between 0.1 μm and 0.3 μm, and wherein the first inorganic layer is an oxynitride layer with an atomic percentage of oxygen greater than 15%.
An industrial truck with an ethernet communication device which comprises at least one first network device and a second network device connected to the latter via a data link , wherein the data link is an ethernet cable with a single twisted pair, and wherein the first network device comprises a first transceiver unit having a first echo compensation unit (EC1) and the second network device comprises a second transceiver unit having a second echo compensation unit (EC2), wherein a first transmitting unit (TX1) of the first transceiver unit is configured to transmit data via the data link to a second receiver (RX2) of the second transceiver unit and wherein a second transmitting unit (TX2) of the second transceiver unit is configured to transmit data via the data link to a first receiver (RX1) of the first transceiver unit , characterized in that the first echo compensation unit (EC1) comprises a first memory which is configured to store a first data signal of the data transmitted by the first transmitting unit (TX1) to the second receiver (RX2) for the purpose of echo compensation for longer than the duration of an echo interval, wherein the echo interval is greater than 150 ns, a data transfer rate on the data link is at least 100 Mbit/s and the ethernet cable is an unshielded cable.
A system comprising a buoy with a flotation body and a heave plate coupled to the buoy , wherein: a bottom surface of the flotation body has a first geometrical shape which is convex; and an upper surface of the heave plate has a geometrical shape which is concave and complementary to the first geometrical shape of the flotation body to facilitate coupling of the heave plate to the bottom surface of the flotation body in a transport mode. a bottom surface of the flotation body has a first geometrical shape which is convex; and an upper surface of the heave plate has a geometrical shape which is concave and complementary to the first geometrical shape of the flotation body to facilitate coupling of the heave plate to the bottom surface of the flotation body in a transport mode.
System for capturing and displaying measurement points (M1, M2, ...) on a surface of a body , comprising a pair of smart glasses and a position measurement apparatus , wherein the pair of smart glasses comprises a head-up display and is designed to capture one or two coordinates of each measurement point by means of a position sensor unit of the pair of smart glasses or, if one or two coordinates of a measurement point are already known to the pair of smart glasses, graphically display the position of the measurement point in accordance with the known coordinate (s) to the user by means of the head-up display on the body surface, wherein the position measurement apparatus comprises a laser light source and an optical detector , which is positionable at the respective measurement point on the body surface, comprising a sensor surface to capture the points of incidence of the laser light of the laser light source, in order to determine the coordinate(s), which are not yet captured, of each measurement point, and wherein the pair of smart glasses is designed to graphically display a result derived from the coordinate (s), captured by means of the position measurement apparatus, for every measurement point at the position of the respective measurement point on the body surface by means of the head-up display.