mhurhangee/ep-ind-claims huggingface dataset:
Use of a refrigerating machine oil composition in a system selected from a car-air conditioner, a gas heat pump, an air conditioner, a closed-type refrigerator, an automatic vending machine, a show case, a hot water supply system, and a refrigerating and heating system; wherein the refrigerating machine oil composition comprises a base oil which contains at least one substance selected from a monoether compound, an alkylene glycol diether, and a polyoxyalkylene glycol diether whose average repetition number of an oxyalkylene group is 2 or less as a main component, and has a kinematic viscosity at 40°C of 1 to 8 mm 2 /s; wherein the monoether compound is a compound represented by the following general formula: R 1 -O-R 2 where R 1 represents a monovalent hydrocarbon group having 7 to 25 carbon atoms, which is a linear or branched alkyl group or alkenyl group having 7 to 25 carbon atoms, R 2 represents a monovalent hydrocarbon group having 1 to 20 carbon atoms, which is a linear, branched, or cyclic alkyl group or alkenyl group having 1 to 20 carbon atoms, and the total number of carbon atoms of those groups is 10 to 45; and wherein the alkylene glycol diether and the polyoxyalkylene glycol diether whose average repetition number of the oxyalkylene group is 2 or less is a compound represented by the following general formula: R 3 -(OR 4) n -OR 5 where R 3 and R 5 each independently represent a monovalent hydrocarbon group having 1 to 20 carbon atoms, which is a linear, branched, or cyclic alkyl group or alkenyl group having 1 to 20 carbon atoms, R 4 represents an alkylene group having 2 to 10 carbon atoms, n represents an average value having 1 to 2, and the total number of carbon atoms of those groups is 9 to 44.
An X-ray radiation detection apparatus comprising: planar detection means having a two-dimensional array of elements which obtain electrical signals based on radiation, for detecting radiation upon irradiation, image signal lines for outputting the electrical signals, and driving signal lines for driving switches for causing the elements to output the electrical signals; a driving circuit which drives the switches; an obtaining circuit which obtains the electrical signals from the elements in accordance with the switches being driven; a support base on which the driving circuit and the obtaining circuit are arranged; and a conductive member having parts (13-1, 13-2) which are electrically connected to ground of the driving circuit and ground of the obtaining circuit, respectively, wherein the radiation detection apparatus is formed by stacking the conductive member, the two-dimensional array and the support base when viewed from a radiation source which performs irradiation with radiation, and wherein the driving circuit, the driving signal lines, the image signal lines, and the obtaining circuit form a closed circuit via the conductive member and not via the support base. planar detection means having a two-dimensional array of elements which obtain electrical signals based on radiation, for detecting radiation upon irradiation, image signal lines for outputting the electrical signals, and driving signal lines for driving switches for causing the elements to output the electrical signals; a driving circuit which drives the switches; an obtaining circuit which obtains the electrical signals from the elements in accordance with the switches being driven; a support base on which the driving circuit and the obtaining circuit are arranged; and a conductive member having parts (13-1, 13-2) which are electrically connected to ground of the driving circuit and ground of the obtaining circuit, respectively, wherein the radiation detection apparatus is formed by stacking the conductive member, the two-dimensional array and the support base when viewed from a radiation source which performs irradiation with radiation, and wherein the driving circuit, the driving signal lines, the image signal lines, and the obtaining circuit form a closed circuit via the conductive member and not via the support base.
Template for assisting the positioning of at least one part with respect to an at least partially metal component, said template comprising: - a positive-location region (a, b, c) for positioning the template against the component in the required position, - a region for maintaining a nominal distance between the part and the component, - at least one magnetised region in order at least partly to support the template in position against the component, characterised in that the positive-location region (a, b, c) is a portion of the profile of the template that at least partially has a form complementary to that of at least one element (6, 7) projecting from the surface of the component, of the pipe coupling type.
A primer coating composition comprising: (a) a (meth)acrylic polymer comprising hydroxyl groups, and having a Tg of at least 30°C, determined in accordance with the Fox Equation; (b) a polyester comprising hydroxyl groups, and having a weight average molecular weight of less than 3000, as determined by gel permeation chromatography using polystyrene standards, and a hydroxyl value of at least 100; and (c) a crosslinking agent having at least two isocyanate groups, wherein said polyester comprises residues of at least one polyol having at least two hydroxyl groups and residues of at least one cyclic carboxylic acid ester. (a) a (meth)acrylic polymer comprising hydroxyl groups, and having a Tg of at least 30°C, determined in accordance with the Fox Equation; (b) a polyester comprising hydroxyl groups, and having a weight average molecular weight of less than 3000, as determined by gel permeation chromatography using polystyrene standards, and a hydroxyl value of at least 100; and (c) a crosslinking agent having at least two isocyanate groups,
Method for bonding timepiece components, at least one whereof is coated with epilame, comprising: - applying an adhesive to a first and/or second timepiece component to be bonded to one another, - depositing an adhesion layer onto at least one of the first and second components to be bonded by spraying a primer composition in a localised joining area of the first or second component, and - solidifying the primer composition. - applying an adhesive to a first and/or second timepiece component to be bonded to one another, - depositing an adhesion layer onto at least one of the first and second components to be bonded by spraying a primer composition in a localised joining area of the first or second component, and - solidifying the primer composition.
A thyristor starter for starting a synchronous machine, comprising: a converter converting first AC power to DC power; an inverter converting said DC power to second AC power at a variable frequency and supplying the second AC power to said synchronous machine; a speed operation portion finding a rotation speed of said synchronous machine; a control angle operation portion including a function or a table showing relation between the rotation speed of said synchronous machine and a phase control angle of said inverter and finding a phase control angle having a value in accordance with the rotation speed of said synchronous machine found by said speed operation portion; and a control unit controlling said inverter based on the phase control angle found by said control angle operation portion, wherein the control angle operation portion is adapted to vary said phase control angle from a minimum value to a maximum value in accordance with the rotation speed of said synchronous machine, characterised in that the control angle operation portion is adapted to vary a rate of increase in said phase control angle relative to the rotation speed of said synchronous machine in a plurality of steps in accordance with the rotation speed of said synchronous machine such that a DC voltage which appears at an input terminal of said inverter is constant in spite of variation in rotation speed of said synchronous machine. a converter converting first AC power to DC power; an inverter converting said DC power to second AC power at a variable frequency and supplying the second AC power to said synchronous machine; a speed operation portion finding a rotation speed of said synchronous machine; a control angle operation portion including a function or a table showing relation between the rotation speed of said synchronous machine and a phase control angle of said inverter and finding a phase control angle having a value in accordance with the rotation speed of said synchronous machine found by said speed operation portion; and a control unit controlling said inverter based on the phase control angle found by said control angle operation portion, wherein the control angle operation portion is adapted to vary said phase control angle from a minimum value to a maximum value in accordance with the rotation speed of said synchronous machine, characterised in that the control angle operation portion is adapted to vary a rate of increase in said phase control angle relative to the rotation speed of said synchronous machine in a plurality of steps in accordance with the rotation speed of said synchronous machine such that a DC voltage which appears at an input terminal of said inverter is constant in spite of variation in rotation speed of said synchronous machine.
Piston cylinder unit filled with fluid comprising a. a housing with a central longitudinal axis with i. an inner chamber filled at least partly with a fluid, b. a piston rod guided out of the housing, arranged coaxially to the central longitudinal axis and c. a piston (8; 8b) attached to the piston rod, i. which divides the inner chamber into a first and a second part inner chamber (9, 10) and ii. comprises at least one outlet opening for connecting the part inner chambers (9, 10) in a flow-enabling manner, d. wherein the at least one outlet opening is assigned at least one damping element for deflecting a fluid flowing through the outlet opening, e. characterised by at least two damping elements, f. wherein the damping elements have an open-pored structure, and g. wherein the damping elements are arranged on opposite sides of the piston (8; 8b) in the direction of the central longitudinal axis. a. a housing with a central longitudinal axis with i. an inner chamber filled at least partly with a fluid, i. an inner chamber filled at least partly with a fluid, b. a piston rod guided out of the housing, arranged coaxially to the central longitudinal axis and c. a piston (8; 8b) attached to the piston rod, i. which divides the inner chamber into a first and a second part inner chamber (9, 10) and ii. comprises at least one outlet opening for connecting the part inner chambers (9, 10) in a flow-enabling manner, i. which divides the inner chamber into a first and a second part inner chamber (9, 10) and ii. comprises at least one outlet opening for connecting the part inner chambers (9, 10) in a flow-enabling manner, d. wherein the at least one outlet opening is assigned at least one damping element for deflecting a fluid flowing through the outlet opening, e. characterised by at least two damping elements, f. wherein the damping elements have an open-pored structure, and g. wherein the damping elements are arranged on opposite sides of the piston (8; 8b) in the direction of the central longitudinal axis.
A method for analysing data for a distribution pipe network within a fluid distribution system, comprising: receiving, by a computing host, acoustic data, from a plurality of computing nodes, for a plurality of pipe segments, wherein the acoustic data is acquired by computing nodes of the plurality of computing nodes, wherein each pipe segment of the plurality of pipe segments is a length of pipe between two computing nodes of the plurality of computing nodes; characterized in that the method further comprises: determining, by the computing host, a characteristic frequency range for each pipe segment of the plurality of pipe segments, based on a pipe material and a geometry of each pipe segment; decomposing, by the computing host, the characteristic frequency range of each pipe segment of the plurality of pipe segments into a plurality of frequency sub-bands; aggregating, by the computing host, the received acoustic data from each pipe segment of the plurality of pipe segments into corresponding frequency sub-bands to build a leak sensitivity model; determining, by the computing host, a correlation schedule by identifying, using the leak sensitivity model, which of the frequency sub-bands should be reported more frequently by the plurality of computing nodes; and providing, by the computing host, the correlation schedule to the plurality of computing nodes, such that the plurality of computing nodes can report the frequency sub-bands of acoustic data according to the correlation schedule. receiving, by a computing host, acoustic data, from a plurality of computing nodes, for a plurality of pipe segments, wherein the acoustic data is acquired by computing nodes of the plurality of computing nodes, wherein each pipe segment of the plurality of pipe segments is a length of pipe between two computing nodes of the plurality of computing nodes; characterized in that the method further comprises: determining, by the computing host, a characteristic frequency range for each pipe segment of the plurality of pipe segments, based on a pipe material and a geometry of each pipe segment; decomposing, by the computing host, the characteristic frequency range of each pipe segment of the plurality of pipe segments into a plurality of frequency sub-bands; aggregating, by the computing host, the received acoustic data from each pipe segment of the plurality of pipe segments into corresponding frequency sub-bands to build a leak sensitivity model; determining, by the computing host, a correlation schedule by identifying, using the leak sensitivity model, which of the frequency sub-bands should be reported more frequently by the plurality of computing nodes; and providing, by the computing host, the correlation schedule to the plurality of computing nodes, such that the plurality of computing nodes can report the frequency sub-bands of acoustic data according to the correlation schedule.
A process for the heterogeneous gas-solid catalysis of a chemical reaction of conversion of a carbon oxide, using, in a reactor, at least one reactant in the gaseous state and a solid catalytic composition capable of catalyzing said reaction in a given range of temperatures T, characterized in that - said at least one reactant is brought into contact with said catalytic composition, which comprises a ferromagnetic nanoparticulate component comprising at least a ferromagnetic metal compound chosen from iron and/or iron carbide, and the surface of which consists, at least partly, of a compound that is a catalyst for said reaction, - said nanoparticulate component is heated by magnetic induction in order to reach a temperature within said range of temperatures T, and - the reaction product(s) that are formed at the surface of said nanoparticulate component are recovered. - said at least one reactant is brought into contact with said catalytic composition, which comprises a ferromagnetic nanoparticulate component comprising at least a ferromagnetic metal compound chosen from iron and/or iron carbide, and the surface of which consists, at least partly, of a compound that is a catalyst for said reaction, - said nanoparticulate component is heated by magnetic induction in order to reach a temperature within said range of temperatures T, and - the reaction product(s) that are formed at the surface of said nanoparticulate component are recovered.
A tubular tendon scaffold device comprising: a porous core comprising a plurality of fibres, each fibre arranged along a longitudinal axis of the tubular tendon scaffold device; and an outer portion formed from a film rolled into a cylindrical structure surrounding the porous core, the film having a plurality of elongated holes perforated through a thickness of the film so that the outer portion comprises a plurality of pores elongated along the longitudinal axis of the tubular tendon scaffold device, the outer portion having a plurality of ridges and grooves formed therein, the grooves being concave spaces between every two ridges; wherein the plurality of fibres define a helix channel in the porous core. a porous core comprising a plurality of fibres, each fibre arranged along a longitudinal axis of the tubular tendon scaffold device; and an outer portion formed from a film rolled into a cylindrical structure surrounding the porous core, the film having a plurality of elongated holes perforated through a thickness of the film so that the outer portion comprises a plurality of pores elongated along the longitudinal axis of the tubular tendon scaffold device, the outer portion having a plurality of ridges and grooves formed therein, the grooves being concave spaces between every two ridges; wherein the plurality of fibres define a helix channel in the porous core.
A control station (400-1, 400-2) in a mobile communication system that includes base stations adapted to transmit MBMS data to mobile stations, the control station (400-1, 400-2) comprising: a communication unit that is adapted to receive, from a core network node, a MBMS session start request message that includes a timing information including Time to MBMS Data Transfer and MBSFN information related to a transmission timing, a frequency, a scrambling code, a channelization and a slot format of the MBMS data, and a time synchronization unit adapted to establish time synchronization with another control station (400-1. 400-2) connected to the same core network node for synchronously transmitting the same MBMS data using the same MBSFN information in all cells under the control of the core network node. a communication unit that is adapted to receive, from a core network node, a MBMS session start request message that includes a timing information including Time to MBMS Data Transfer and MBSFN information related to a transmission timing, a frequency, a scrambling code, a channelization and a slot format of the MBMS data, and a time synchronization unit adapted to establish time synchronization with another control station (400-1. 400-2) connected to the same core network node for synchronously transmitting the same MBMS data using the same MBSFN information in all cells under the control of the core network node.
A pharmaceutical composition comprising a peptide consisting of the sequence according to SEQ ID NO: 303, or a pharmaceutically acceptable salt of the peptide together with at least one suitable carrier and/or excipient for use in the treatment of Hepatocellular carcinoma cancer.
A wood or plastic screw, comprising a head, a tip, a cylindrical shank portion, a conical tip portion that forms the transition from the shank portion to the tip, and comprising a main thread which extends over the shank portion up to the tip, and an additional thread which extends in sections in the area of the conical tip portion from a thread turn of the main thread to the next thread turn and merges into the main thread at opposite ends without intersecting a thread turn (28, 30), characterized in that the additional thread extends between the second and third threads turns when viewed from the tip.
An environmentally-friendly steel sheet for a can and a container characterized by having on it a tin layer or iron-tin alloy layer which has on it a tin oxide layer of a thickness measured by an electric stripping method of 0.01 mC/cm 2 to 3.5 mC/cm 2 and has further formed on that a chrome-free foundation layer including a zirconium compound of a film amount converted to zirconium of 1 mg/m 2 to 30 mg/m 2 and of an amount of sulfate radical (SO 4 2-) of 0.2 mg/m 2 to 7 mg/m 2.
A pressure sensor device comprising: - a casing (2a, 3a) defining a cavity with an inlet passage (8a, 8b), - a pressure sensor having a body accommodated in the cavity, for detecting the pressure of a fluid present in the inlet passage (8a, 8b), - a circuit arrangement including a circuit support at least partially accommodated in the cavity according to a respective laying plane, the pressure sensor being mounted on the circuit support, wherein associated to the circuit support is a protection body surrounding the pressure sensor and cooperating for sealing purposes with an internal surface of the casing (2a, 3a), wherein the protection body cooperates with said internal surface of the casing (2a, 3a) through seal means and externally defines a seat for coupling or positioning a seal member belonging to said seal means, characterized in that - the seal member is a radial seal gasket, - the protection body has at least one respective portion inserted into a respective portion of the inlet passage (8a, 8b) or into a chamber for the pressure sensor defined within the cavity in fluid communication with the inlet passage (8a, 8b), and - the radial seal gasket is also inserted into said portion of the inlet passage (8a, 8b) or into said chamber, respectively, for cooperating with a surface delimiting said portion of the inlet passage (8a, 8b) or with a surface delimiting the chamber, respectively. - a casing (2a, 3a) defining a cavity with an inlet passage (8a, 8b), - a pressure sensor having a body accommodated in the cavity, for detecting the pressure of a fluid present in the inlet passage (8a, 8b), - a circuit arrangement including a circuit support at least partially accommodated in the cavity according to a respective laying plane, the pressure sensor being mounted on the circuit support, - the seal member is a radial seal gasket, - the protection body has at least one respective portion inserted into a respective portion of the inlet passage (8a, 8b) or into a chamber for the pressure sensor defined within the cavity in fluid communication with the inlet passage (8a, 8b), and - the radial seal gasket is also inserted into said portion of the inlet passage (8a, 8b) or into said chamber, respectively, for cooperating with a surface delimiting said portion of the inlet passage (8a, 8b) or with a surface delimiting the chamber, respectively.
A window element comprising a switchable optical cell having a layer structure comprising in this order - a first substrate, - a first electrode layer, - a first alignment layer, - a switchable layer, - a second alignment layer, - a second electrode layer, and - a second substrate, wherein the switchable layer is a homeotropically aligned liquid crystal layer comprising a liquid crystalline medium, wherein the liquid crystalline medium comprises one or more dichroic dyes, wherein the window element has an area of at least 100 cm 2, wherein the switchable layer is unsegmented or is segmented into compartments each having an area of at least 1 cm 2, and wherein the window element does not include a polarizer, characterized in that a pretilt angle in the range of from 84° to 86° is set by at least one of the first alignment layer and the second alignment layer. - a first substrate, - a first electrode layer, - a first alignment layer, - a switchable layer, - a second alignment layer, - a second electrode layer, and - a second substrate, wherein the switchable layer is a homeotropically aligned liquid crystal layer comprising a liquid crystalline medium, wherein the liquid crystalline medium comprises one or more dichroic dyes, wherein the window element has an area of at least 100 cm 2, wherein the switchable layer is unsegmented or is segmented into compartments each having an area of at least 1 cm 2, and wherein the window element does not include a polarizer, characterized in that a pretilt angle in the range of from 84° to 86° is set by at least one of the first alignment layer and the second alignment layer.