mhurhangee/ep-ind-claims huggingface dataset:
RFID transponder device comprising - antenna terminals (RFI1, RFI2, RF01, RF02) for coupling an antenna system to the device; - a transmitter coupled to the antenna terminals (RFI1, RFI2, RF01, RF02) and configured to provide an oscillating signal to the antenna terminals (RFI1, RFI2, RF01, RF02); - a receiver coupled to the antenna terminals (RFI1, RFI2, RF01, RF02) and configured to receive an oscillating signal at the antenna terminals (RFI1, RFI2, RF01, RF02); - a first damping structure comprising a parallel connection of a first damping resistance and a first switch, said parallel connection being connected between one of the antenna terminals and a first transmitter output terminal of the transmitter; and - a second damping structure comprising a series connection of a further damping resistance and a further switch being connected between a first and a second receiver input terminal (TR1, TR2); - wherein one of the first and the second damping structure is selected as being enabled and the other one of the first and the second damping structure is selected as being disabled, said selection depending on a voltage swing at the antenna terminals (RFI1, RFI2, RF01, RF02) during a transmission burst period; and - wherein the device further comprises a damping control being configured to activate the damping resistance (RD1, RD2, RD4) of said activated damping structure during a damping period after the transmission burst period by controlling the respective switch (SW1, SW2, SW4) of said activated damping structure. - antenna terminals (RFI1, RFI2, RF01, RF02) for coupling an antenna system to the device; - a transmitter coupled to the antenna terminals (RFI1, RFI2, RF01, RF02) and configured to provide an oscillating signal to the antenna terminals (RFI1, RFI2, RF01, RF02); - a receiver coupled to the antenna terminals (RFI1, RFI2, RF01, RF02) and configured to receive an oscillating signal at the antenna terminals (RFI1, RFI2, RF01, RF02); - a first damping structure comprising a parallel connection of a first damping resistance and a first switch, said parallel connection being connected between one of the antenna terminals and a first transmitter output terminal of the transmitter; and - a second damping structure comprising a series connection of a further damping resistance and a further switch being connected between a first and a second receiver input terminal (TR1, TR2); - wherein one of the first and the second damping structure is selected as being enabled and the other one of the first and the second damping structure is selected as being disabled, said selection depending on a voltage swing at the antenna terminals (RFI1, RFI2, RF01, RF02) during a transmission burst period; and - wherein the device further comprises a damping control being configured to activate the damping resistance (RD1, RD2, RD4) of said activated damping structure during a damping period after the transmission burst period by controlling the respective switch (SW1, SW2, SW4) of said activated damping structure.
A method of preparing 2-chloro-3,3,3-trifluoropropene comprising: contacting 1,1,2,3-tetrachloropropene, 2,3,3,3-tetrachloropropene and/or 1,1,1,2,3-pentachloropropane with a halogenating agent in the presence of at least one catalyst and at least one stabilizer selected from the group consisting of 4- tert- amylphenol, methoxy-hydroquinone, 4-methoxyphenol, butylated hydroxy anisole, thymol, an amine-based stabilizer and combinations thereof to produce a C3 haloolefin. contacting 1,1,2,3-tetrachloropropene, 2,3,3,3-tetrachloropropene and/or 1,1,1,2,3-pentachloropropane with a halogenating agent in the presence of at least one catalyst and at least one stabilizer selected from the group consisting of 4- tert- amylphenol, methoxy-hydroquinone, 4-methoxyphenol, butylated hydroxy anisole, thymol, an amine-based stabilizer and combinations thereof to produce a C3 haloolefin.
A polymer comprising: silyl ester group(s), and quaternary ammonium group(s) and/or quaternary phosphonium group(s), said quaternary ammonium groups and/or quaternary phosphonium groups being neutralised by counter-ions, wherein the counter-ions consist of the conjugate base of an acid having an aliphatic, aromatic, or alkaryl hydrocarbyl group. silyl ester group(s), and quaternary ammonium group(s) and/or quaternary phosphonium group(s), said quaternary ammonium groups and/or quaternary phosphonium groups being neutralised by counter-ions, wherein the counter-ions consist of the conjugate base of an acid having an aliphatic, aromatic, or alkaryl hydrocarbyl group.
A yellow toner comprising a binder resin and a yellow colorant, wherein a compound A represented by the following general formula and a compound B represented by the following general formula are contained as the yellow colorant, and wherein the total content of the compound A and the compound B is from 3 to 30 parts by mass with respect to 100 parts by mass of the binder resin, and a mass ratio of the content of the compound A to the content of the compound B (compound A/compound B) is from 0.8 to 20: where R 1A, R 1B, R 2A and R 2B are each independently a halogen atom, an alkyl group, a methoxy group, an amino group, a nitro group, an acetylamido group (-NHCOCH 3), a methyl ester group (-COOCH 3) or a primary amide group (-CONH 2); R 3 is a halogen atom; R 4 and R 5 are each independently a halogen atom, an alkyl group, a methoxy group, an amino group, a nitro group, an acetylamido group (-NHCOCH 3), an acetyl group (-COCH 3), a methyl ester group (-COOCH 3) or a primary amide group (-CONH 2); a1 and b1 are positive integers that a sum of the positive integers is 1 or more and 3 or less; a2 and b2 are positive integers that a sum of the positive integers is 1 or more and 3 or less; c is an integer of 1 or more and 3 or less; and d and e are each independently 1 or 2, where R 6 is an alkyl group. wherein a compound A represented by the following general formula and a compound B represented by the following general formula are contained as the yellow colorant, and wherein the total content of the compound A and the compound B is from 3 to 30 parts by mass with respect to 100 parts by mass of the binder resin, and a mass ratio of the content of the compound A to the content of the compound B (compound A/compound B) is from 0.8 to 20: where R 1A, R 1B, R 2A and R 2B are each independently a halogen atom, an alkyl group, a methoxy group, an amino group, a nitro group, an acetylamido group (-NHCOCH 3), a methyl ester group (-COOCH 3) or a primary amide group (-CONH 2); R 3 is a halogen atom; R 4 and R 5 are each independently a halogen atom, an alkyl group, a methoxy group, an amino group, a nitro group, an acetylamido group (-NHCOCH 3), an acetyl group (-COCH 3), a methyl ester group (-COOCH 3) or a primary amide group (-CONH 2); a1 and b1 are positive integers that a sum of the positive integers is 1 or more and 3 or less; a2 and b2 are positive integers that a sum of the positive integers is 1 or more and 3 or less; c is an integer of 1 or more and 3 or less; and d and e are each independently 1 or 2, where R 6 is an alkyl group.
A module which has switchable operation states, comprising: a first switching unit, configured to switch the module between a first operation state and a second operation state; the module being characterized in that it further comprises: a first interface, configured to be switched between sending signals to an other module which has switchable operation states and receiving signals from the other module, wherein the other module and the module are backup modules for each other, wherein the module is adapted to have the first interface send a first signal to the other module when the module is in the first operation state, send a second signal to the other module when the module is to be switched into the second operation state, and receive signals from the other module when the module is in the second operation state; and a second interface, configured to communicate with the other module, wherein: when the second interface receives, from the other module, a response to the second signal sent by the first interface, the first switching unit switches the module into the second operation state. a first interface, configured to be switched between sending signals to an other module which has switchable operation states and receiving signals from the other module, wherein the other module and the module are backup modules for each other, wherein the module is adapted to have the first interface send a first signal to the other module when the module is in the first operation state, send a second signal to the other module when the module is to be switched into the second operation state, and receive signals from the other module when the module is in the second operation state; and a second interface, configured to communicate with the other module, wherein: when the second interface receives, from the other module, a response to the second signal sent by the first interface, the first switching unit switches the module into the second operation state.
An electric taxiing system of an aircraft comprising: a wheel (5a, 7a) of an aircraft; a taxiing motor (5b, 7b) which is rotated together with the wheel (5a, 7a) in landing of the aircraft to apply braking force to the wheel (5a, 7a) and to generate regenerative power according to the braking force, and which rotates the wheel (5a, 7a) in taxiing of the aircraft; and electric elements (9b, lib, 13b, 15b, 29a, 31a) of the aircraft; and a power supply control unit which supplies the regenerative power to the electric elements (9b, 11b, 13b, 15b, 29a, 31a) of the aircraft, said electric elements (9b, 11b, 13b, 15b, 29a, 31a) including electric actuators (9b, 11b, 13b, 15b), and causes at least the electric actuators (9b, 11b, 13b, 15b) to consume the regenerative power while the regenerative power is being generated, the electric elements (9b, 11b, 13b, 15b, 29a, 31a) being driven in order for the aircraft to perform landing or re-takeoff after cancelling landing, wherein the electric elements include a reverse thrust unit (9b, 11b, 13b, 15b) which deflects a bypass air flow of a jet engine (17, 19) of the aircraft toward a front of the aircraft in landing of the aircraft. a wheel (5a, 7a) of an aircraft; a taxiing motor (5b, 7b) which is rotated together with the wheel (5a, 7a) in landing of the aircraft to apply braking force to the wheel (5a, 7a) and to generate regenerative power according to the braking force, and which rotates the wheel (5a, 7a) in taxiing of the aircraft; and electric elements (9b, lib, 13b, 15b, 29a, 31a) of the aircraft; and a power supply control unit which supplies the regenerative power to the electric elements (9b, 11b, 13b, 15b, 29a, 31a) of the aircraft, said electric elements (9b, 11b, 13b, 15b, 29a, 31a) including electric actuators (9b, 11b, 13b, 15b), and causes at least the electric actuators (9b, 11b, 13b, 15b) to consume the regenerative power while the regenerative power is being generated, the electric elements (9b, 11b, 13b, 15b, 29a, 31a) being driven in order for the aircraft to perform landing or re-takeoff after cancelling landing, wherein the electric elements include a reverse thrust unit (9b, 11b, 13b, 15b) which deflects a bypass air flow of a jet engine (17, 19) of the aircraft toward a front of the aircraft in landing of the aircraft.
Sensing device to measure components, comprising a testing body connected to a base body, characterised in that at least the surface of the testing body which is able to be brought into contact with the component to be measured is provided with a crystalline diamond layer, provided that the crystalline diamond layer a) has a thickness of 0.2μm to 100 μm, wherein the diamond layer has a fine crystalline diamond structure and the crystalline domains have an average particle size of d 50 ≤ 100nm and, b) has a surface roughness of RMS < 50nm and, c) has a transverse rupture stress of > 2GPa as well as d) an E-modulus of < 850GPa, wherein the E-modulus in GPa of the nanocrystalline diamond layer is greater than the E-modulus of the material in GPa of the testing body by a factor of 4. a) has a thickness of 0.2μm to 100 μm, wherein the diamond layer has a fine crystalline diamond structure and the crystalline domains have an average particle size of d 50 ≤ 100nm and, b) has a surface roughness of RMS < 50nm and, c) has a transverse rupture stress of > 2GPa as well as d) an E-modulus of < 850GPa, wherein the E-modulus in GPa of the nanocrystalline diamond layer is greater than the E-modulus of the material in GPa of the testing body by a factor of 4.
A method for installing a heat recovery steam generator comprising a plurality of pre-assembled modules, the method comprising: arranging a pre-assembled module of the heat recovery steam generator at an installation site, wherein the pre-assembled module comprises a functional unit of the heat recovery steam generator housed in a casing structure, the casing structure comprising a top casing, a bottom casing and a side casing connecting the top casing and the bottom casing, wherein the top casing is disposed to cover the top of the pre-assembled module in a vertical position, the bottom casing is disposed to cover the bottom of the pre-assembled module in a vertical position and the side casing is disposed to cover one of the sides of the pre-assembled module in a vertical position but not on the other, whereby an open or uncovered side is defined opposite to the side covered by the side casing, wherein the pre-assembled module is arranged in a horizontal position on the installation site with the open side facing downward and the side casing facing upward, attaching an exterior structural steel component to the side casing in a horizontal position without lifting the module, lifting the module with the attached exterior structural steel component to a vertical position, and securing the exterior structural steel component to a foundation with the module in the vertical position. arranging a pre-assembled module of the heat recovery steam generator at an installation site, wherein the pre-assembled module comprises a functional unit of the heat recovery steam generator housed in a casing structure, the casing structure comprising a top casing, a bottom casing and a side casing connecting the top casing and the bottom casing, wherein the top casing is disposed to cover the top of the pre-assembled module in a vertical position, the bottom casing is disposed to cover the bottom of the pre-assembled module in a vertical position and the side casing is disposed to cover one of the sides of the pre-assembled module in a vertical position but not on the other, whereby an open or uncovered side is defined opposite to the side covered by the side casing, wherein the pre-assembled module is arranged in a horizontal position on the installation site with the open side facing downward and the side casing facing upward, attaching an exterior structural steel component to the side casing in a horizontal position without lifting the module, lifting the module with the attached exterior structural steel component to a vertical position, and securing the exterior structural steel component to a foundation with the module in the vertical position.
A power device (200, 400) for a renewable power system, comprising: an enclosure; circuitry (202, 402) housed within the enclosure; a temperature sensing device (201, 301, 401) housed within the enclosure; first and second conductors (204, 404a, 404b, 504aa, 504ba) having first ends physically secured to and within the enclosure; first and second connectors (408a, 408b) located outside the enclosure connected at second ends of the first and second conductors, respectively; a first conductive path providing an electrical connection between the first ends of the first and second conductors and the circuitry; wherein the temperature sensing device (201, 301, 401) is deployed adjacently to where the first conductor and the second conductor are physically secured to the enclosure; and wherein the circuitry comprises a power converter and a controller configured to receive measurements from the temperature sensing device and to trigger an overheating response in response to a measurement indicating overheating of at least one of the first and second connectors (408a, 408b). an enclosure; circuitry (202, 402) housed within the enclosure; a temperature sensing device (201, 301, 401) housed within the enclosure; first and second conductors (204, 404a, 404b, 504aa, 504ba) having first ends physically secured to and within the enclosure; first and second connectors (408a, 408b) located outside the enclosure connected at second ends of the first and second conductors, respectively; a first conductive path providing an electrical connection between the first ends of the first and second conductors and the circuitry; wherein the temperature sensing device (201, 301, 401) is deployed adjacently to where the first conductor and the second conductor are physically secured to the enclosure; and wherein the circuitry comprises a power converter and a controller configured to receive measurements from the temperature sensing device and to trigger an overheating response in response to a measurement indicating overheating of at least one of the first and second connectors (408a, 408b).
A hinge device comprising a pivot and at least two fittings rotatably connected through the pivot, characterized in that the hinge device further comprises an anti-rotation device (200, 200'), wherein the pivot has a polygonal pivot head, and wherein the anti-rotation device (200, 200') comprises: - an inner anti-rotation part for preventing the rotating of the pivot head, which comprises at least one leg (11, 12), which is abutable against respective one of the side faces of the pivot head in the mounting state; - an outer anti-rotation part (20, 20') for preventing the rotating of the inner anti-rotation part, which comprises at least one wall (21, 22), each of which abuts against the respective one of the at least one leg (11, 12) of the inner anti-rotation part in the mounting state; and - a fixer for fixing the inner anti-rotation part to the outer anti-rotation part (20, 20'), wherein the outer anti-rotation part (20, 20') is fixable on one of the fittings, whereby the inner anti-rotation part is fixed on the outer anti-rotation part and thus prevents the rotating of the pivot head. - an inner anti-rotation part for preventing the rotating of the pivot head, which comprises at least one leg (11, 12), which is abutable against respective one of the side faces of the pivot head in the mounting state; - an outer anti-rotation part (20, 20') for preventing the rotating of the inner anti-rotation part, which comprises at least one wall (21, 22), each of which abuts against the respective one of the at least one leg (11, 12) of the inner anti-rotation part in the mounting state; and - a fixer for fixing the inner anti-rotation part to the outer anti-rotation part (20, 20'),
A method for repairing a defect in a flexible flow line, the method characterised by comprising the following steps: providing a two-piece clamping collar; preparing a composite resin; splitting the total volume of composite resin into two, and packing each one in a separate fabric bag, each bag having a warp of natural fibres; attaching a first one of the bags of composite resin to the inside of a first one of the pieces of the two-piece clamping collar, and attaching a second one of the bags of composite resin to the inside of a second one of the pieces of the two-piece clamping collar; placing the two-piece clamping collar around the region of the flexible flow line containing the failure; and securing said two-piece clamping collar with some means of fastening. providing a two-piece clamping collar; preparing a composite resin; splitting the total volume of composite resin into two, and packing each one in a separate fabric bag, each bag having a warp of natural fibres; attaching a first one of the bags of composite resin to the inside of a first one of the pieces of the two-piece clamping collar, and attaching a second one of the bags of composite resin to the inside of a second one of the pieces of the two-piece clamping collar; placing the two-piece clamping collar around the region of the flexible flow line containing the failure; and securing said two-piece clamping collar with some means of fastening.
A method comprising: determining, by a path computation device (10, 100) for a network of routers interconnected by a plurality of links in a network topology, a first set of N paths between a pair of nodes that represent a pair of the routers, where N > 2; obtaining, by the path computation device, a test path for the pair of nodes and a total metric for the test path; determining, by the path computation device, a worst path from the first set of N paths that has a total metric that is worse than respective total metrics of the other paths from the first set of N paths, wherein the total metric of the worst path is a worst cost of the first set of N paths; by the path computation device in response to determining the total metric for the test path is less than the worst cost, removing the worst path from the first set of N paths and adding the test path to the first set of N paths to obtain a second set of N paths; and outputting, by the path computation device, data for at least one path of the second set of N paths to the network for programming a label switched path in the network on the at least one path. determining, by a path computation device (10, 100) for a network of routers interconnected by a plurality of links in a network topology, a first set of N paths between a pair of nodes that represent a pair of the routers, where N > 2; obtaining, by the path computation device, a test path for the pair of nodes and a total metric for the test path; determining, by the path computation device, a worst path from the first set of N paths that has a total metric that is worse than respective total metrics of the other paths from the first set of N paths, wherein the total metric of the worst path is a worst cost of the first set of N paths; by the path computation device in response to determining the total metric for the test path is less than the worst cost, removing the worst path from the first set of N paths and adding the test path to the first set of N paths to obtain a second set of N paths; and outputting, by the path computation device, data for at least one path of the second set of N paths to the network for programming a label switched path in the network on the at least one path.