mhurhangee/ep-ind-claims huggingface dataset:
Method for producing prepared shaped parts from wire, wherein: wire is drawn in from a wire supply and fed to a wire-processing machine (100, 800), the wire is straightened in the wire-processing machine (100, 800), and shaped parts of predefinable wire length are separated off from the straightened wire, wherein, for separating a shaped part from the fed wire, firstly, at a separation position intended for separation, the wire is notched in at least one notching operation from two mutually oppositely situated sides by means of notching tools (325-1, 325-2, 925-1, 925-2, 1330-1, 1330-2, 1425-1, 1425-2) in such a way that a narrowed wire cross section remains between oppositely situated notches at the separation position; and, subsequently, in a dividing operation, the notched wire is separated in the region of the narrowed wire cross section at the separation position in that two dividing tools (345-1, 345-2, 945-1, 945-2, 1330-1, 1330-2, 1435-1, 1435-2) act on oppositely situated sides of the wire and are advanced synchronously perpendicularly to the wire axis in opposite advancement directions until the wire material has been severed at the separation position. wire is drawn in from a wire supply and fed to a wire-processing machine (100, 800), the wire is straightened in the wire-processing machine (100, 800), and shaped parts of predefinable wire length are separated off from the straightened wire, wherein, for separating a shaped part from the fed wire, firstly, at a separation position intended for separation, the wire is notched in at least one notching operation from two mutually oppositely situated sides by means of notching tools (325-1, 325-2, 925-1, 925-2, 1330-1, 1330-2, 1425-1, 1425-2) in such a way that a narrowed wire cross section remains between oppositely situated notches at the separation position; and, subsequently, in a dividing operation, the notched wire is separated in the region of the narrowed wire cross section at the separation position in that two dividing tools (345-1, 345-2, 945-1, 945-2, 1330-1, 1330-2, 1435-1, 1435-2) act on oppositely situated sides of the wire and are advanced synchronously perpendicularly to the wire axis in opposite advancement directions until the wire material has been severed at the separation position.
Portable power tool, in particular drilling machine, having at least a motor, a fan and an air-guiding channel which is intended to be operatively connected to a dust extraction device, wherein the air-guiding channel and the motor are arranged at least partially on opposite sides (22, 24) of the fan as seen in the direction of the axis of rotation of the fan, characterized in that the fan is intended to draw in each case at least one air flow (26, 28) from two opposite sides (22, 24) of the fan as seen in the direction of the axis of rotation of the fan, and in that that the portable power tool has at least one exhaust opening through which the fan pushes out the air of the two air flows (26, 28) such that the air of the two air flows (26, 28) mixes.
A modular pipe running assembly (100; 110) comprising: a) a fluid operated modular actuator assembly adapted to be connected to a top drive assembly, said modular actuator assembly comprising: i) a fluid swivel assembly; ii) a control manifold detachably connected to said swivel assembly; iii) a check valve disposed downstream of said swivel assembly; and b) a modular pipe gripping assembly (130; 150) connected to said actuator assembly, characterised in that the pipe running (100; 110) assembly further comprises c) an interchangeable pipe gripping assembly connected to said actuator assembly, wherein said interchangeable pipe gripping assembly is actuated by said actuator assembly, whereby the interchangeable gripping assembly is configured to permit the gripper assembly to be modified between an internal and an external gripping action. a) a fluid operated modular actuator assembly adapted to be connected to a top drive assembly, said modular actuator assembly comprising: i) a fluid swivel assembly; ii) a control manifold detachably connected to said swivel assembly; iii) a check valve disposed downstream of said swivel assembly; and i) a fluid swivel assembly; ii) a control manifold detachably connected to said swivel assembly; iii) a check valve disposed downstream of said swivel assembly; and b) a modular pipe gripping assembly (130; 150) connected to said actuator assembly, characterised in that the pipe running (100; 110) assembly further comprises c) an interchangeable pipe gripping assembly connected to said actuator assembly, wherein said interchangeable pipe gripping assembly is actuated by said actuator assembly, whereby the interchangeable gripping assembly is configured to permit the gripper assembly to be modified between an internal and an external gripping action.
A high electron mobility transistor comprising: • an epitaxial substrate comprising a semi-insulating substrate, a buffer layer, and a barrier layer sequentially stacked; • a mechanical protection and/or passivation layer formed on the barrier layer, and • first and second current conductive electrodes (6, 7) formed on the barrier layer; and • a control gate and one or more field plate electrodes formed on the barrier layer or on the mechanical protection and/or passivation layer, between the first and second current conductive electrodes (6, 7); characterized in that it further comprises: • an electric circuit formed to electrically connect each field plate electrode to an electric reference potential, and comprising at least one rectifying contact formed outside a channel area of the high electron mobility transistor and distinct from the rectifying contact defined by the Schottky junction formed by the field plate electrode. • an epitaxial substrate comprising a semi-insulating substrate, a buffer layer, and a barrier layer sequentially stacked; • a mechanical protection and/or passivation layer formed on the barrier layer, and • first and second current conductive electrodes (6, 7) formed on the barrier layer; and • a control gate and one or more field plate electrodes formed on the barrier layer or on the mechanical protection and/or passivation layer, between the first and second current conductive electrodes (6, 7); • an electric circuit formed to electrically connect each field plate electrode to an electric reference potential, and comprising at least one rectifying contact formed outside a channel area of the high electron mobility transistor and distinct from the rectifying contact defined by the Schottky junction formed by the field plate electrode.
A method for executing a contactless transaction, comprising: establishing a contactless communication between a contactless transaction terminal and a processor (PRC, HP3), transmitting a command associated with an application identifier from the terminal to the processor, and comprising the following steps executed by an operating system of the processor: searching in a table for an instance identifier (AID-IID) corresponding to the application identifier appearing in the command, and associated with a state indicator specifying that an application instance having the instance identifier is in an activable state, and activating the application instance having the instance identifier found in the table, by transmitting the command thereto, the application instance once activated executing a contactless transaction with the transaction terminal. establishing a contactless communication between a contactless transaction terminal and a processor (PRC, HP3), transmitting a command associated with an application identifier from the terminal to the processor, and searching in a table for an instance identifier (AID-IID) corresponding to the application identifier appearing in the command, and associated with a state indicator specifying that an application instance having the instance identifier is in an activable state, and activating the application instance having the instance identifier found in the table, by transmitting the command thereto, the application instance once activated executing a contactless transaction with the transaction terminal.
Wind turbine rotor blade having a rotor blade root, a rotor blade tip, a rotor blade front edge and a rotor blade rear edge and a pressure side and an intake side, a rotor blade outer shell having at least one opening in the pressure side and/or intake side for receiving handling means for assembly or disassembly of the rotor blade, and at least one securing unit for securing the handling means which is introduced through the at least one opening, wherein the securing unit is arranged at the inner side of the rotor blade outer shell between the pressure side and the intake side, wherein a first end of the handling means which has been introduced is secured to a first end of the securing unit, wherein the first end of the securing unit is secured to the side of the rotor blade opposite the opening.
Varnish for coating the surface of a substrate and inkjet-deposited, where the varnish composition includes at least: i. a curable acrylate monofunctional monomer, ii. a curable diacrylate bifunctional monomer, iii. a curable acrylate monomer with only an acrylate functionality, with said functionality comprised between 3 and 6, iv. a photo-initiator, v. an optional dispersion of nanoparticles, and vi. an optional self-initiating resin, characterised in that • the varnish contains at least 5% by weight of curable acrylate monofunctional monomer including at least two ethoxylations and/or propoxylations, • the varnish contains at least 20% by weight of curable bifunctional diacrylate monomer, • the varnish contains at least 5% by weight of curable acrylate monomer with only the acrylate functionality, said functionality being comprised between 3 and 6, said monomer including at least two ethoxylations and/or propoxylations, • the photo-initiator contains 50% by weight of a photo-initiator with a molar mass of more than 400 g/mol, • acrylate monomers and photo-initiators represent at least 45% by weight of varnish, • the varnish has a viscosity of less than 200 mPa.s at 25°C and a surface tension comprised between 10 mN/m and 50 mN/m at 25°C, and • the curable bifunctional diacrylate monomer consists in a mixture of diacrylates containing at least two ethoxylations and/or propoxylations with diacrylates which do not contain at least two ethoxylations and/or propoxylations. i. a curable acrylate monofunctional monomer, ii. a curable diacrylate bifunctional monomer, iii. a curable acrylate monomer with only an acrylate functionality, with said functionality comprised between 3 and 6, iv. a photo-initiator, v. an optional dispersion of nanoparticles, and vi. an optional self-initiating resin, • the varnish contains at least 5% by weight of curable acrylate monofunctional monomer including at least two ethoxylations and/or propoxylations, • the varnish contains at least 20% by weight of curable bifunctional diacrylate monomer, • the varnish contains at least 5% by weight of curable acrylate monomer with only the acrylate functionality, said functionality being comprised between 3 and 6, said monomer including at least two ethoxylations and/or propoxylations, • the photo-initiator contains 50% by weight of a photo-initiator with a molar mass of more than 400 g/mol, • acrylate monomers and photo-initiators represent at least 45% by weight of varnish, • the varnish has a viscosity of less than 200 mPa.s at 25°C and a surface tension comprised between 10 mN/m and 50 mN/m at 25°C, and • the curable bifunctional diacrylate monomer consists in a mixture of diacrylates containing at least two ethoxylations and/or propoxylations with diacrylates which do not contain at least two ethoxylations and/or propoxylations.
A method for enabling improved handover of a user equipment communicating in a first radio access network utilizing a first radio access technology, RAT, said method comprising: measuring, at said user equipment, a first parameter for at least one of a plurality of neighboring cells of at least a second radio access network utilizing WCDMA; reporting said first parameter to a node in said first radio access network, and initiating handover to one of said plurality of neighboring cells in said second radio access network based on said reported first parameter, characterized by: measuring at least a second parameter for said at least one of said plurality of neighboring cells of said second radio access network, and reporting said second measured parameter to said node in said first radio access network, wherein said initiating handover to said one of said plurality of neighboring cells in said second radio access network is based on both of said first and second measured parameters, and wherein both said first and said second parameters are reported simultaneously and said first parameter is reported according to one of a limited range of values, and said second parameter is reported in the same field using a limited value range, whereby each first parameter value is reported together with one of a plurality of possible limited value ranges. measuring, at said user equipment, a first parameter for at least one of a plurality of neighboring cells of at least a second radio access network utilizing WCDMA; reporting said first parameter to a node in said first radio access network, and initiating handover to one of said plurality of neighboring cells in said second radio access network based on said reported first parameter, measuring at least a second parameter for said at least one of said plurality of neighboring cells of said second radio access network, and reporting said second measured parameter to said node in said first radio access network, wherein said initiating handover to said one of said plurality of neighboring cells in said second radio access network is based on both of said first and second measured parameters, and wherein both said first and said second parameters are reported simultaneously and said first parameter is reported according to one of a limited range of values, and said second parameter is reported in the same field using a limited value range, whereby each first parameter value is reported together with one of a plurality of possible limited value ranges.
A fuel cell comprising: - a stack of membrane/electrodes assemblies including an ion-conductive electrolyte disposed between an anode and a cathode, two adjacent assemblies being separated by a bipolar plate, the stack including a first and a second end, - an inlet end plate disposed at the first end of the stack and an outlet end plate disposed at the second end of the stack, - n intermediate plates disposed in the stack between the inlet end plate and the outlet end plate to form n+1 sub-stacks (101, 102, 103) of the stack, n being greater than or equal to 1, - ducts for circulating a heat transfer fluid (24A-24D, 113), an oxidant (32A-32D) and a fuel (51A-51D) in the fuel cell, the circulation ducts passing in the inlet end plate, the outlet end plate and the n intermediate plates, - valves for controlling the heat transfer fluid (111, 112) in the circulation ducts of the outlet end plate and valves for controlling the heat transfer fluid (131, 132), the oxidant (135, 136) and the fuel (133, 134) in the circulation ducts of the n intermediate plates, the control valves being configured to allow the circulation of the heat transfer fluid, the oxidant and the fuel in m sub-stacks (101, 102, 103) of the stack, m being greater than or equal to 1 and less than or equal to n. - a stack of membrane/electrodes assemblies including an ion-conductive electrolyte disposed between an anode and a cathode, two adjacent assemblies being separated by a bipolar plate, the stack including a first and a second end, - an inlet end plate disposed at the first end of the stack and an outlet end plate disposed at the second end of the stack, - n intermediate plates disposed in the stack between the inlet end plate and the outlet end plate to form n+1 sub-stacks (101, 102, 103) of the stack, n being greater than or equal to 1, - ducts for circulating a heat transfer fluid (24A-24D, 113), an oxidant (32A-32D) and a fuel (51A-51D) in the fuel cell, the circulation ducts passing in the inlet end plate, the outlet end plate and the n intermediate plates, - valves for controlling the heat transfer fluid (111, 112) in the circulation ducts of the outlet end plate and valves for controlling the heat transfer fluid (131, 132), the oxidant (135, 136) and the fuel (133, 134) in the circulation ducts of the n intermediate plates, the control valves being configured to allow the circulation of the heat transfer fluid, the oxidant and the fuel in m sub-stacks (101, 102, 103) of the stack, m being greater than or equal to 1 and less than or equal to n.
A diaphragm compressor having a compressor head comprising a hydraulic fluid plate having a fluid plate contact plane and a process fluid plate having a process plate contact plane, the hydraulic fluid plate and the process fluid plate forms a compression chamber when contact between the fluid plate contact plane and the process plate contact plane is established, the compression chamber is divided in an upper chamber and a lower chamber by a multi-layered diaphragm, wherein a controller is configured for controlling an alternating movement of the multi-layered diaphragm towards the upper and the lower chambers (6,7) respectively, wherein a process fluid plate seal is positioned in a process fluid seal groove provided in the process plate contact plane, the process fluid plate seal forms a process fluid seal between an upper side of the multi-layered diaphragm and the process plate contact plane wherein said multi-layered diaphragm comprises a process diaphragm, a hydraulic diaphragm and a leak detection diaphragm, wherein the process fluid plate comprises a process fluid leak groove system fluidly connected to a process fluid plate leakage passage provided in the process fluid plate, and wherein said diaphragm compressor is characterized in that said leak detection diaphragm comprises one or more process side diaphragm grooves provided in the side of said leak detection diaphragm facing said process fluid diagram and in that said process fluid diaphragm comprises one or more holes wherein said one or more process side diaphragm grooves are configured for guiding a leak of process fluid to said process fluid leak groove system via said one or more holes while at the same time separating said leak of process fluid from a potential leak of hydraulic fluid from said hydraulic diaphragm. wherein a controller is configured for controlling an alternating movement of the multi-layered diaphragm towards the upper and the lower chambers (6,7) respectively, wherein a process fluid plate seal is positioned in a process fluid seal groove provided in the process plate contact plane, the process fluid plate seal forms a process fluid seal between an upper side of the multi-layered diaphragm and the process plate contact plane wherein said multi-layered diaphragm comprises a process diaphragm, a hydraulic diaphragm and a leak detection diaphragm, wherein the process fluid plate comprises a process fluid leak groove system fluidly connected to a process fluid plate leakage passage provided in the process fluid plate, and wherein said diaphragm compressor is characterized in that said leak detection diaphragm comprises one or more process side diaphragm grooves provided in the side of said leak detection diaphragm facing said process fluid diagram and in that said process fluid diaphragm comprises one or more holes wherein said one or more process side diaphragm grooves are configured for guiding a leak of process fluid to said process fluid leak groove system via said one or more holes while at the same time separating said leak of process fluid from a potential leak of hydraulic fluid from said hydraulic diaphragm.
A composition comprising a thiophene azo carboxylate dye having the structure of Formula I or (I'): wherein R 1 is H or an electron-withdrawing group; R', R" each independently are selected from H, C 1-4 -alkyl, CH 2 O(CH 2 CH 2 O) z Q, phenyl and CH 2 OR 5; R 5 each is selected from linear or branched C 1 -C 16 -alkyl, C 6 -C 14 -aryl and C 7 -C 16 -arylalkyl; Q, Q' each independently are selected from H and Y, and at least one of Q and Q' is Y; wherein Y is an organic radical of Formula: wherein independently for each Y, M is H or a charge balancing cation; m, n each independently is 0-5; and the sum of ( m + n) is 1-10; R 4 each independently is H, linear or branched C 3-18 -alkyl or linear or branched C 3-18 -alkenyl, and at least one R 4 is not H; and y, y' each independently are an integer of 1-39; and (y+y) is 8-40; x is ≥ 0, and z is > 1. R 1 is H or an electron-withdrawing group; R', R" each independently are selected from H, C 1-4 -alkyl, CH 2 O(CH 2 CH 2 O) z Q, phenyl and CH 2 OR 5; R 5 each is selected from linear or branched C 1 -C 16 -alkyl, C 6 -C 14 -aryl and C 7 -C 16 -arylalkyl; R 5 each is selected from linear or branched C 1 -C 16 -alkyl, C 6 -C 14 -aryl and C 7 -C 16 -arylalkyl; Q, Q' each independently are selected from H and Y, and at least one of Q and Q' is Y; wherein Y is an organic radical of Formula: wherein independently for each Y, M is H or a charge balancing cation; m, n each independently is 0-5; and the sum of ( m + n) is 1-10; R 4 each independently is H, linear or branched C 3-18 -alkyl or linear or branched C 3-18 -alkenyl, and at least one R 4 is not H; and M is H or a charge balancing cation; m, n each independently is 0-5; and the sum of ( m + n) is 1-10; R 4 each independently is H, linear or branched C 3-18 -alkyl or linear or branched C 3-18 -alkenyl, and at least one R 4 is not H; and y, y' each independently are an integer of 1-39; and (y+y) is 8-40; x is ≥ 0, and z is > 1.