mhurhangee/ep-ind-claims huggingface dataset:
A method for the displacement of a vertically displaceable motor-driven door leaf in an opening in a building where a first line drum comprising a first axis of rotation is caused to interact with a first line that is attached to the line drum and the door leaf, a second line drum comprising a second axis of rotation is caused to interact with a second line that is attached to the line drum and the door leaf, a force of rotation is transferred from a motor unit to the axis of rotation (5, 8) of the relevant line drum through a power-transfer unit whereby the line drums (4, 7) are rotated and the first line is rolled onto or rolled off from the first line drum and the second line is rolled onto or rolled off from the second line drum, whereby the door leaf is displaced upwards or downwards and where the power-transfer unit is caused to act on at least one axis of rotation (5, 8) since two cogs are always in interaction with each other in a gear system comprised within the power-transfer unit and acts on at least one axis of rotation (5, 8) whereby at least this one axis of rotation (5, 8) is rotated and where a transmission unit is caused to interact with the first axis of rotation and the second axis of rotation and ensures that the rotation of the axis of rotation (5, 8) that is caused to rotate with the aid of the power-transfer unit is transferred to the second axis of rotation (5, 8). characterised in that the force of rotation from a first motor comprised within the motor unit is transferred to the first line drum and where the force of rotation from a second motor comprised within the motor unit is transferred to the second line drum.
A method for removing an unwanted component included in a beverage, comprising: bringing the beverage into contact with a metal-supported zeolite; and bringing the beverage, which has been brought into contact with the metal-supported zeolite, into contact with a metal-trapping material, wherein the unwanted component is at least one selected from the group consisting of dimethyl sulfide, dimethyl disulfide (DMDS), and dimethyl trisulfide (DMTS); the beverage is alcoholic beverages; the metal which constitutes the metal-supported zeolite is silver; and the zeolite which constitutes the metal-supported zeolite is Y-type or β-type. bringing the beverage into contact with a metal-supported zeolite; and bringing the beverage, which has been brought into contact with the metal-supported zeolite, into contact with a metal-trapping material, wherein the unwanted component is at least one selected from the group consisting of dimethyl sulfide, dimethyl disulfide (DMDS), and dimethyl trisulfide (DMTS); the beverage is alcoholic beverages; the metal which constitutes the metal-supported zeolite is silver; and the zeolite which constitutes the metal-supported zeolite is Y-type or β-type.
A catheter system for treating a treatment site within or adjacent to a vessel wall or heart valve within a body of a patient, the catheter system comprising: an energy source that generates energy; a balloon that is positionable substantially adjacent to the treatment site, the balloon having a balloon wall that defines a balloon interior, the balloon interior being configured to receive a balloon fluid; an energy guide that is configured to receive energy from the energy source and guide the energy into the balloon interior; and an electrical analyzer assembly that is configured to monitor a condition of the balloon during use of the catheter system, wherein the electrical analyzer assembly includes (i) a first electrode, (ii) a second electrode positioned in a manner to, in use, be in fluid communication with blood of the patient, and (iii) an impedance detector, the impedance detector being electrically coupled to the first electrode and the second electrode, the impedance detector being configured to detect an impedance between the first electrode and the second electrode. an energy source that generates energy; a balloon that is positionable substantially adjacent to the treatment site, the balloon having a balloon wall that defines a balloon interior, the balloon interior being configured to receive a balloon fluid; an energy guide that is configured to receive energy from the energy source and guide the energy into the balloon interior; and an electrical analyzer assembly that is configured to monitor a condition of the balloon during use of the catheter system, wherein the electrical analyzer assembly includes (i) a first electrode, (ii) a second electrode positioned in a manner to, in use, be in fluid communication with blood of the patient, and (iii) an impedance detector, the impedance detector being electrically coupled to the first electrode and the second electrode, the impedance detector being configured to detect an impedance between the first electrode and the second electrode.
An endless metal belt (101, 102) having a length extension/a circumference (1 1) of between 1 m and 200 m, a width extension (b 1) of between 1 m and 10 m and a thickness of between 0.3 mm and 2.5 mm which is produced by welding together multiple individual metal belt parts, characterized in that a rolling direction of the individual metal belt parts and all the weld seams extend transversely to the length extension/to the circumference (1 1) of the metal belt (101, 102), wherein the rolling direction extends in parallel to the weld seams.
Brake controller/regulator (S1, S2) for a rail vehicle having a railcar body to which at least one bogie is attached in a manner able to move by at least one degree of freedom, characterized in that the brake controller/regulator (S1, S2) is of multipart design, divided into at least one internal brake controller/regulator that is able to be arranged inside or on the railcar body and into at least one external brake controller/regulator that is able to be arranged inside or on the bogie, wherein the external brake controller/regulator is designed to communicate with sensors that are arranged on the bogie, and to collect and/or to (pre) process data ascertained from the sensors in order to forward said data to the internal brake controller/regulator, such that the amount of data to be exchanged is reduced due to the processing of the data by the external brake controller/regulator. the brake controller/regulator (S1, S2) is of multipart design, divided into at least one internal brake controller/regulator that is able to be arranged inside or on the railcar body and into at least one external brake controller/regulator that is able to be arranged inside or on the bogie, wherein the external brake controller/regulator is designed to communicate with sensors that are arranged on the bogie, and to collect and/or to (pre) process data ascertained from the sensors in order to forward said data to the internal brake controller/regulator, such that the amount of data to be exchanged is reduced due to the processing of the data by the external brake controller/regulator.
A wireless transmit receive/unit, WTRU, comprising a transceiver operably connected to a processor, the processor being configured to: determine at least one uplink component carrier and at least two downlink component carriers; encode hybrid automatic repeat request, HARQ, information bits associated with the at least two downlink component carriers, wherein the HARQ information bits associated with each of the at least two downlink component carriers are jointly encoded; and map the jointly encoded HARQ information bits associated with the at least two downlink component carriers to one or more resource blocks that are used for reporting uplink control information; and the transceiver being configured to transmit the mapped jointly encoded HARQ information bits in a physical uplink control channel, PUCCH, transmission using the one or more resource blocks, wherein the PUCCH transmission is carried by a single uplink component carrier of the at least one uplink component carrier. determine at least one uplink component carrier and at least two downlink component carriers; encode hybrid automatic repeat request, HARQ, information bits associated with the at least two downlink component carriers, wherein the HARQ information bits associated with each of the at least two downlink component carriers are jointly encoded; and map the jointly encoded HARQ information bits associated with the at least two downlink component carriers to one or more resource blocks that are used for reporting uplink control information; and the transceiver being configured to transmit the mapped jointly encoded HARQ information bits in a physical uplink control channel, PUCCH, transmission using the one or more resource blocks, wherein the PUCCH transmission is carried by a single uplink component carrier of the at least one uplink component carrier.
A sealant formulation comprising: (i) a polysulfide; (ii) an acid component selected from an acid salt, sodium aluminum sulfate, delta-gluconolactone, sodium aluminum pyrophosphate or aluminum sulfate; and (iii) a bicarbonate. (i) a polysulfide; (ii) an acid component selected from an acid salt, sodium aluminum sulfate, delta-gluconolactone, sodium aluminum pyrophosphate or aluminum sulfate; and (iii) a bicarbonate.
Plant protection device with at least one base body (16a; 16b; 16c; 16d; 16e; 16f) which is formed in one piece and is configured, in particular for the protection of at least one plant (12a; 12c; 12d; 12e; 12f), to at least partially encompass at least one passage (18a; 18b; 18c; 18d; 18e; 18f), wherein the base body (16a; 16b; 16c; 16d; 16e; 16f) is made of a material that is completely biodegradable, in particular without residue, wherein the base body (16a; 16b; 16c; 16d; 16e; 16f) is realized as a skeletal structure, characterized in that the base body (16a; 16b; 16c; 16d; 16e; 16f) which is realized as a skeletal structure is formed of a plurality of struts (26a; 26b; 26c; 26d) which are realized integrally with one another via connection points (24a; 24d) and which delimit a plurality of recesses (28a; 28d) from an outer side of the base body (16a; 16b; 16c; 16d; 16e; 16f) towards an inner side of the base body (16a; 16b; 16c; 16d; 16e; 16f) that faces the passage (18a; 18b; 18c; 18d; 18e; 18f), wherein the connection points (24a; 24d) are formed when a second layer of extruded struts is applied on an extrusion body over a first layer of extruded struts. wherein the base body (16a; 16b; 16c; 16d; 16e; 16f) is realized as a skeletal structure, characterized in that the base body (16a; 16b; 16c; 16d; 16e; 16f) which is realized as a skeletal structure is formed of a plurality of struts (26a; 26b; 26c; 26d) which are realized integrally with one another via connection points (24a; 24d) and which delimit a plurality of recesses (28a; 28d) from an outer side of the base body (16a; 16b; 16c; 16d; 16e; 16f) towards an inner side of the base body (16a; 16b; 16c; 16d; 16e; 16f) that faces the passage (18a; 18b; 18c; 18d; 18e; 18f), wherein the connection points (24a; 24d) are formed when a second layer of extruded struts is applied on an extrusion body over a first layer of extruded struts.
An apparatus for manufacturing SiO, comprising: a reaction unit configured to receive a SiO-making material and bring the received material into reaction by heating to generate a SiO gas; and a collecting unit configured to maintain an internal temperature lower than an internal temperature of the reaction unit, the collecting unit including a rotating member in an inner space thereof, wherein the collecting unit collects a SiO deposit by introducing the SiO gas generated by the reaction unit through an inlet formed at least at one side thereof and allowing the introduced SiO gas to be deposited to a surface of the rotating member, and characterized in that the collecting unit further includes a removing member for separating the SiO deposit from the surface of the rotating member by injecting a gas to the surface of the rotating member and controlling the internal temperature by means of the gas injected by the removing member. a reaction unit configured to receive a SiO-making material and bring the received material into reaction by heating to generate a SiO gas; and a collecting unit configured to maintain an internal temperature lower than an internal temperature of the reaction unit, the collecting unit including a rotating member in an inner space thereof, wherein the collecting unit collects a SiO deposit by introducing the SiO gas generated by the reaction unit through an inlet formed at least at one side thereof and allowing the introduced SiO gas to be deposited to a surface of the rotating member, and characterized in that the collecting unit further includes a removing member for separating the SiO deposit from the surface of the rotating member by injecting a gas to the surface of the rotating member and controlling the internal temperature by means of the gas injected by the removing member.
A switched capacitor power converter comprising: an input terminal; an output terminal; a plurality of capacitors; a plurality of switches for selectively connecting the plurality of capacitors to each other, and / or to the input terminal, and / or to the output terminal, and / or a reference terminal; and a controller configured to operate the plurality of switches based on the output voltage (Vo), such that one or more of the plurality capacitors (C1,C2,C3,C4,C5,C6) are connected between the input terminal and the output terminal as either: a first-topology, to provide a first conversion ratio; or a second-topology, to provide a second conversion ratio, wherein the second conversion ratio is different to the first conversion ratio; characterised in that the plurality of capacitors (C1,C2,C3,C4,C5,C6) comprises one or more variable-capacitors, and the controller is configured to set one or more respective capacitance values of the one or more variable-capacitors based on the output voltage (Vo). an input terminal; an output terminal; a plurality of capacitors; a plurality of switches for selectively connecting the plurality of capacitors to each other, and / or to the input terminal, and / or to the output terminal, and / or a reference terminal; and a controller configured to operate the plurality of switches based on the output voltage (Vo), such that one or more of the plurality capacitors (C1,C2,C3,C4,C5,C6) are connected between the input terminal and the output terminal as either: a first-topology, to provide a first conversion ratio; or a second-topology, to provide a second conversion ratio, wherein the second conversion ratio is different to the first conversion ratio; a first-topology, to provide a first conversion ratio; or a second-topology, to provide a second conversion ratio, wherein the second conversion ratio is different to the first conversion ratio; characterised in that the plurality of capacitors (C1,C2,C3,C4,C5,C6) comprises one or more variable-capacitors, and the controller is configured to set one or more respective capacitance values of the one or more variable-capacitors based on the output voltage (Vo).
A method comprising: operating a magnetometer of a mobile device during a trip in a vehicle to acquire magnetometer data, wherein the magnetometer is included in one or more sensors of the mobile device; acquiring speed data from a sensor of the one or more sensors of the mobile device during the trip in the vehicle; correlating, by a processor of the mobile device, the magnetometer data to the speed data to separate the magnetometer data into one or more groupings based on the speed data; performing, by the processor of the mobile device, spectral analysis on a magnitude of the magnetometer data for each of the one or more groupings to obtain one or more sets of frequency components; calculating, by the processor of the mobile device, an energy for each frequency component of the one or more sets of frequency components obtained from the spectral analysis; generating a plurality of differences between the energy of the frequency components in each set of frequency components and baseline values; and assigning, by the processor of the mobile device, a transportation mode type to the vehicle based on the plurality of differences. operating a magnetometer of a mobile device during a trip in a vehicle to acquire magnetometer data, wherein the magnetometer is included in one or more sensors of the mobile device; acquiring speed data from a sensor of the one or more sensors of the mobile device during the trip in the vehicle; correlating, by a processor of the mobile device, the magnetometer data to the speed data to separate the magnetometer data into one or more groupings based on the speed data; performing, by the processor of the mobile device, spectral analysis on a magnitude of the magnetometer data for each of the one or more groupings to obtain one or more sets of frequency components; calculating, by the processor of the mobile device, an energy for each frequency component of the one or more sets of frequency components obtained from the spectral analysis; generating a plurality of differences between the energy of the frequency components in each set of frequency components and baseline values; and assigning, by the processor of the mobile device, a transportation mode type to the vehicle based on the plurality of differences.
Valve housing, in particular slide housing, having at least one washer, wherein the washer has armouring on the shut-off side and, on the rear side, on its attachment side facing a metal housing, is provided with a hard solder layer and is thus soldered into the housing, characterized in that the washer is formed as a hard metal ring having a permissible compressive stress of at least 100 N/mm 2, whose rear side coated with a carrier material is attached in material-bonded fashion to a planar mounting surface having no undercuts.
An unmanned underwater vehicle for use in cold surroundings, the unmanned underwater vehicle comprising a hydraulic system that further comprises - a hydraulic circuit; - a pump configured to pressurize a flow of hydraulic fluid via the hydraulic circuit; - a valve system comprising control valves (41,42,43) disposed in the hydraulic circuit for controlling the flow of hydraulic fluid through the hydraulic circuit; and - a controller configured to receive a temperature input related to a temperature of the hydraulic fluid and control at least one of the valves in view of the temperature input and to activate or maintain circulation of the hydraulic fluid through at least part of the hydraulic circuit based on a condition that the temperature hydraulic fluid is below a predetermined minimum temperature (Tmin). - a hydraulic circuit; - a pump configured to pressurize a flow of hydraulic fluid via the hydraulic circuit; - a valve system comprising control valves (41,42,43) disposed in the hydraulic circuit for controlling the flow of hydraulic fluid through the hydraulic circuit; and - a controller configured to receive a temperature input related to a temperature of the hydraulic fluid and control at least one of the valves in view of the temperature input and to activate or maintain circulation of the hydraulic fluid through at least part of the hydraulic circuit based on a condition that the temperature hydraulic fluid is below a predetermined minimum temperature (Tmin).
A method of manufacturing a multi-layered propellant grain comprising the following steps: providing a first propellant formulation in form of a paste; providing a die configured to provide a structure having an outer shell and a hollow interior when material is extruded therethrough, the die comprising multiple passageways formed therethrough; extruding the first propellant formulation through said die using a ram press or a screw extruder, to produce a first propellant layer having an outer shell defining a hollow interior in the form of a passageway (6, 34, 40) having open ends; providing a second propellant formulation in form of a liquid or gel, said second propellant formulation being of lower viscosity as compared with the first propellant formulation; injecting said second propellant formulation into said passageway defined by said first propellant layer to form a second propellant layer disposed in said passageway, wherein the said injecting of said second propellant formulation is performed at substantially the same time as the said extruding of said first propellant formulation and is performed through a pressure differential means including pumps, pressurized vessels, ram press or small screw extruders; and hardening said second propellant layer, wherein the first and second propellant layers have different rates of burning. providing a first propellant formulation in form of a paste; providing a die configured to provide a structure having an outer shell and a hollow interior when material is extruded therethrough, the die comprising multiple passageways formed therethrough; extruding the first propellant formulation through said die using a ram press or a screw extruder, to produce a first propellant layer having an outer shell defining a hollow interior in the form of a passageway (6, 34, 40) having open ends; providing a second propellant formulation in form of a liquid or gel, said second propellant formulation being of lower viscosity as compared with the first propellant formulation; injecting said second propellant formulation into said passageway defined by said first propellant layer to form a second propellant layer disposed in said passageway, wherein the said injecting of said second propellant formulation is performed at substantially the same time as the said extruding of said first propellant formulation and is performed through a pressure differential means including pumps, pressurized vessels, ram press or small screw extruders; and hardening said second propellant layer,
A thermal type fluid flow sensor for measuring an air flow, which is formed on a substrate, comprising: a humidity detecting portion; and an air flow detecting portion, wherein the humidity detecting portion includes: a first heat generating resistor; and an air cavity on an upper side of the first heat generating resistor, and wherein the air flow detecting portion includes: a second heat generating resistor; characterised in that a plurality of temperature measuring resistors (4, 5) are provided on sides of the second heat generating resistor to interpose the second heat generating resistor within a face parallel to a main face of the substrate, and a protecting film is provided which covers substantially a total of the main face of the fluid flow sensor and has a plurality of holes reaching the air cavity from an upper face of the protecting film and has an opening portion over the second heat generating resistor and the plurality of said temperature measuring resistors (4, 5). a humidity detecting portion; and an air flow detecting portion, wherein the humidity detecting portion includes: a first heat generating resistor; and an air cavity on an upper side of the first heat generating resistor, and wherein the air flow detecting portion includes: a first heat generating resistor; and an air cavity on an upper side of the first heat generating resistor, and wherein the air flow detecting portion includes: a second heat generating resistor;
A recombinant transketolase A protein comprising the sequence of SEQ ID NO:63 with a protease recognition sequence located between two amino acids of SEQ ID NO:63, wherein the protease recognition sequence is located after amino acid 635, 636, 637, 638, or 640 of the sequence of SEQ ID NO:63.