mhurhangee/ep-ind-claims huggingface dataset:
A piston ring comprising: an anti-wear layer (6, 22), which is present on a substrate, made of Ni, Cr, Mo and / or Cr 3 C 2; a running-in layer (10, 26) made of AlFeCu; characterized in that a transition layer (8, 24) is provided on the anti-wear layer (6, 22), namely between anti-wear layer (6, 22) and running-in layer (10, 26), wherein the anti-wear layer (6, 22) has a composition of Mo: 52 - 62 % by weight Cr: 12 - 22 % by weight C: 0.5 - 2 % by weight Ni: 12 - 20 % by weight, wherein the components Mo, Cr, C, and Ni as well as unavoidable contaminations add up to 100 % by weight in the anti-wear layer, wherein the running-in layer comprises a composition of Al: 5 - 7 % by weight Fe: 1 - 3 % by weight Cu and unavoidable contaminations: remainder at 100 % by weight, and wherein the transition layer (8, 24) has 40 - 60 % of AlFeCu and 60 - 40 % of Ni, Cr, Mo and / or Cr 3 C 2. an anti-wear layer (6, 22), which is present on a substrate, made of Ni, Cr, Mo and / or Cr 3 C 2; a running-in layer (10, 26) made of AlFeCu; characterized in that a transition layer (8, 24) is provided on the anti-wear layer (6, 22), namely between anti-wear layer (6, 22) and running-in layer (10, 26), wherein the anti-wear layer (6, 22) has a composition of Mo: 52 - 62 % by weight Cr: 12 - 22 % by weight C: 0.5 - 2 % by weight Ni: 12 - 20 % by weight, wherein the components Mo, Cr, C, and Ni as well as unavoidable contaminations add up to 100 % by weight in the anti-wear layer, wherein the running-in layer comprises a composition of Al: 5 - 7 % by weight Fe: 1 - 3 % by weight Cu and unavoidable contaminations: remainder at 100 % by weight, and wherein the transition layer (8, 24) has 40 - 60 % of AlFeCu and 60 - 40 % of Ni, Cr, Mo and / or Cr 3 C 2.
A method comprising the steps of: providing a treatment fluid comprising an aqueous liquid, a plurality of particulates, and a particulate suspending agent, wherein the particulate suspending agent comprises crosslinked polymer particulates comprising a polymer which comprises a first monofunctional monomer and which is crosslinked with an orthoester crosslinker comprising an orthoester linkage and at least two crosslinking moieties; and placing the treatment fluid into a wellbore penetrating a subterranean formation; wherein the subterranean formation has a bottom hole static temperature of 66°C or more (150°F or more); and wherein the first monofunctional monomer is selected from N -vinylamide, N- alkyl- N -vinylamide, N -vinylformamide, 1-vinyl-2-pyrrolidinone, N -vinylcaprolactam, N- acryloyl morpholine, N -methyl- N -vinylacetamide, N -vinylacetamide, sodium 4-styrenesulfonate, vinylsulfonic acid, and any derivative thereof. providing a treatment fluid comprising an aqueous liquid, a plurality of particulates, and a particulate suspending agent, wherein the particulate suspending agent comprises crosslinked polymer particulates comprising a polymer which comprises a first monofunctional monomer and which is crosslinked with an orthoester crosslinker comprising an orthoester linkage and at least two crosslinking moieties; and placing the treatment fluid into a wellbore penetrating a subterranean formation; wherein the subterranean formation has a bottom hole static temperature of 66°C or more (150°F or more); and wherein the first monofunctional monomer is selected from N -vinylamide, N- alkyl- N -vinylamide, N -vinylformamide, 1-vinyl-2-pyrrolidinone, N -vinylcaprolactam, N- acryloyl morpholine, N -methyl- N -vinylacetamide, N -vinylacetamide, sodium 4-styrenesulfonate, vinylsulfonic acid, and any derivative thereof.
A drug delivery apparatus, comprising: a barrel (B-1100) to contain a substance; a piston (B-1200) slidable in the barrel along a piston course; a supply circuit (C-1300) to provide input currents; an antenna (C-1100) affixed along the barrel (B-1100), characterized in that the antenna comprises: a circuit board with a plurality of layers (C-1110) stacked on top of each other and connected to the supply circuit (C-1300), and a plurality of sets of coils (C-1120) on the layers (C-1110) of said plurality of layers and extending along the piston course to receive the input currents, generate an inductance with the piston, and provide output currents commensurate with the inductance; and processing circuitry (C-1300) connected to the plurality of sets of coils and configured to receive the output currents; and determine a quantity of the substance inside the barrel (B-1100) based on the output currents. a barrel (B-1100) to contain a substance; a piston (B-1200) slidable in the barrel along a piston course; a supply circuit (C-1300) to provide input currents; an antenna (C-1100) affixed along the barrel (B-1100), characterized in that the antenna comprises: a circuit board with a plurality of layers (C-1110) stacked on top of each other and connected to the supply circuit (C-1300), and a plurality of sets of coils (C-1120) on the layers (C-1110) of said plurality of layers and extending along the piston course to receive the input currents, generate an inductance with the piston, and provide output currents commensurate with the inductance; a circuit board with a plurality of layers (C-1110) stacked on top of each other and connected to the supply circuit (C-1300), and a plurality of sets of coils (C-1120) on the layers (C-1110) of said plurality of layers and extending along the piston course to receive the input currents, generate an inductance with the piston, and provide output currents commensurate with the inductance; receive the input currents, generate an inductance with the piston, and provide output currents commensurate with the inductance; and processing circuitry (C-1300) connected to the plurality of sets of coils and configured to receive the output currents; and determine a quantity of the substance inside the barrel (B-1100) based on the output currents.
A transcranial magnetic stimulation device for giving a magnetic stimulation to the body of a patient, comprising: a coil driving power supply; and an excitation coil (2-1, 2-2) adapted to be connected to the coil driving power supply; and the coil driving power supply is configured to flow current having a specific pattern through the excitation coil (2-1, 2-2), wherein a magnetic field is generated by applying a specific current waveform pattern to the excitation coil (2-1, 2-2), wherein the excitation coil (2-1, 2-2) is configured to be selected from a plurality of coil types suitable for a disease to be treated and the selected coil (2-1, 2-2) is configured to be connected to the coil driving power supply; and characterized by further comprising a coil type detection means adapted to detect the type of coil (2-1, 2-2) connected, and a control unit for controlling an operation of the coil driving power supply, the control unit being configured to select the current waveform pattern, which is predetermined for each excitation coil (2-1, 2-2) of the plurality of coil types, based on the type of the excitation coil (2-1,2-2) detected by the coil type detection means and to supply current with the selected current waveform pattern. a coil driving power supply; and an excitation coil (2-1, 2-2) adapted to be connected to the coil driving power supply; and the coil driving power supply is configured to flow current having a specific pattern through the excitation coil (2-1, 2-2), wherein a magnetic field is generated by applying a specific current waveform pattern to the excitation coil (2-1, 2-2), wherein the excitation coil (2-1, 2-2) is configured to be selected from a plurality of coil types suitable for a disease to be treated and the selected coil (2-1, 2-2) is configured to be connected to the coil driving power supply; and characterized by further comprising a coil type detection means adapted to detect the type of coil (2-1, 2-2) connected, and a control unit for controlling an operation of the coil driving power supply, the control unit being configured to select the current waveform pattern, which is predetermined for each excitation coil (2-1, 2-2) of the plurality of coil types, based on the type of the excitation coil (2-1,2-2) detected by the coil type detection means and to supply current with the selected current waveform pattern.
Controller for a windshield wiping device, wherein the windshield wiping device comprises a drive device and a gear which transmits the movement of the drive device to a wiper shaft, and the controller comprises the following: - a comparison device for determining whether the torque which is output by the drive device exceeds the predetermined torque more often than a predetermined frequency, - wherein the predetermined torque and the frequency are dependent on the position of the wiper shaft, and - a reversing device for reversing the direction of rotation of the drive device as a function of the result of the comparison device. - a comparison device for determining whether the torque which is output by the drive device exceeds the predetermined torque more often than a predetermined frequency, - wherein the predetermined torque and the frequency are dependent on the position of the wiper shaft, and - a reversing device for reversing the direction of rotation of the drive device as a function of the result of the comparison device.
A method of receiving a physical downlink shared channel, PDSCH, by a user equipment, UE, in a wireless communication system, the method comprising: receiving, via a first short transmission time interval, sTTI, a physical downlink control channel, PDCCH, that comprises (i) information for scheduling k repetitions of the PDSCH and (ii) rate matching information for the PDSCH; receiving the PDSCH repeatedly in the first sTTI and (k-1) second sTTI subsequent to the first sTTI based on the rate matching information; and transmitting, in a third sTTI, Hybrid Automatic Repeat Request - Acknowledgement, HARQ-ACK, for the repeatedly received PDSCH, wherein the rate matching information is commonly applied to each of the first sTTI and the (k-1) second sTTI, wherein the third sTTI for transmitting the HARQ-ACK is determined based on a last of the (k-1) second sTTI in which the PDSCH was repeatedly received, and wherein k is a positive integer, and k is greater than 1. receiving, via a first short transmission time interval, sTTI, a physical downlink control channel, PDCCH, that comprises (i) information for scheduling k repetitions of the PDSCH and (ii) rate matching information for the PDSCH; receiving the PDSCH repeatedly in the first sTTI and (k-1) second sTTI subsequent to the first sTTI based on the rate matching information; and transmitting, in a third sTTI, Hybrid Automatic Repeat Request - Acknowledgement, HARQ-ACK, for the repeatedly received PDSCH, wherein the rate matching information is commonly applied to each of the first sTTI and the (k-1) second sTTI, wherein the third sTTI for transmitting the HARQ-ACK is determined based on a last of the (k-1) second sTTI in which the PDSCH was repeatedly received, and wherein k is a positive integer, and k is greater than 1.
Method of manufacturing a consumable filler metal in the form of wire, rod, or stick, and the like, of predetermined length and cross-section for use in a welding operation, and wherein the method comprising the steps of: - providing an ingot of a first aluminium alloy and inserts or bodies of a second metal or metals different from the first aluminium alloy; - forming a composite product by providing the ingot of the first aluminium alloywith one or more hollow cores in substantially parallel relation to each other and locating in the hollow cores the second metal(s), wherein the second metal(s) is made from a monolithic material; - applying pressure to the composite product to reduce its cross-section to a predetermined cross-section to form feedstock; - optionally further deforming the feedstock by means of mechanical pressure to form wire, rod or stick, of final cross-section so that the ultimate alloying stage of the first aluminium alloy with the second metal or metals is performed when the wire, rod or stick is used as filler material or consumable electrode during a welding operation. - providing an ingot of a first aluminium alloy and inserts or bodies of a second metal or metals different from the first aluminium alloy; - forming a composite product by providing the ingot of the first aluminium alloywith one or more hollow cores in substantially parallel relation to each other and locating in the hollow cores the second metal(s), wherein the second metal(s) is made from a monolithic material; - applying pressure to the composite product to reduce its cross-section to a predetermined cross-section to form feedstock; - optionally further deforming the feedstock by means of mechanical pressure to form wire, rod or stick, of final cross-section so that the ultimate alloying stage of the first aluminium alloy with the second metal or metals is performed when the wire, rod or stick is used as filler material or consumable electrode during a welding operation.
An adsorption process to purify hydrogen to a predetermined purity dependent upon carbon monoxide or nitrogen content from a feed gas mixture including hydrogen and at least one impurity selected from carbon monoxide and nitrogen, said process comprising feeding said feed gas mixture through an adsorption apparatus comprising an inlet end adsorption layer comprising activated carbon, activated alumina, silica gel or combinations thereof and a different discharge end adsorption layer, characterised in that said discharge end adsorption layer comprises an adsorbent having, when said predetermined purity is dependent on carbon monoxide content, a K H at 21°C (70°F) for carbon monoxide from 0.8 to 2.2 mmole/g/0.1 MPa (atm) or, when said predetermined purity is dependent on nitrogen content, a K H at 21°C (70°F) for nitrogen from 0.55 to 1.40 mmole/g/0.1 MPa (atm).
Device (30, 34, 35) for a DC/DC voltage converter, comprising: - a transformer that comprises at least one winding (31, 33) having a first winding terminal and a second winding terminal, - a transformer unit, comprising a housing in which the transformer with the at least one winding (31, 33) is arranged, wherein the first and the second winding terminal (35-1; 35-2) are routed out of the housing, - a capacitor arrangement consisting of at least one capacitor (34 i) having a first capacitor arrangement terminal and a second capacitor arrangement terminal; wherein - the capacitor arrangement is arranged so as to bear on the housing of the transformer unit so as to form the device (30, 34, 35), wherein - the second capacitor arrangement terminal or the second capacitor arrangement terminals is or are connected to the first winding terminal by way of one or more first connecting parts; - the first capacitor arrangement terminal or the first capacitor arrangement terminals and/or the second winding terminal is or are electrically connected to one or more second connecting parts (360; 363) and the second connecting parts are able to be connected to a first and a second power module (11M; 12M) of a DC/DC voltage converter. - a transformer that comprises at least one winding (31, 33) having a first winding terminal and a second winding terminal, - a transformer unit, comprising a housing in which the transformer with the at least one winding (31, 33) is arranged, wherein the first and the second winding terminal (35-1; 35-2) are routed out of the housing, - a capacitor arrangement consisting of at least one capacitor (34 i) having a first capacitor arrangement terminal and a second capacitor arrangement terminal; - the capacitor arrangement is arranged so as to bear on the housing of the transformer unit so as to form the device (30, 34, 35), wherein - the second capacitor arrangement terminal or the second capacitor arrangement terminals is or are connected to the first winding terminal by way of one or more first connecting parts; - the first capacitor arrangement terminal or the first capacitor arrangement terminals and/or the second winding terminal is or are electrically connected to one or more second connecting parts (360; 363) and the second connecting parts are able to be connected to a first and a second power module (11M; 12M) of a DC/DC voltage converter.
Watercraft with at least a first socket and a second socket, wherein the first socket and the second socket are designed for receiving a first supporting element, and with a mobile ballistic shield, wherein the mobile ballistic shield has at least a first supporting element and a second supporting element, at least a first plate element and at least a first rail element, wherein the at least first supporting element and the second supporting element can be arranged vertically, wherein the at least first plate element can be arranged between the first supporting element and the second supporting element, wherein the first rail element can be arranged above the first supporting element, the second supporting element and the first plate element, wherein the first supporting element has a first recess for receiving the first plate element, wherein the second supporting element has a first recess for receiving the first plate element, wherein the first supporting element has on the underside a first anchoring device, wherein the second supporting element has on the underside a second anchoring device, wherein the first supporting element and the first rail element can be non-positively interconnected, wherein the second supporting element and the first rail element can be non-positively interconnected, wherein the mobile ballistic shield has at least a third supporting element, at least a second plate element and at least a second rail element, wherein the second supporting element has a second recess for receiving the second plate element, wherein the third supporting element has a first recess for receiving the second plate element, wherein the third supporting element has on the underside a third anchoring device, the first recess of the second supporting element and the second recess of the second supporting element are arranged lying opposite, wherein the first recess of the second supporting element and the second recess of the second supporting element are arranged at an obtuse angle in relation to one another, wherein the obtuse angle is 135° and wherein the socket has a water outlet.
A method for producing a silk nanofiber nerve conduit, the method comprising: (Step 1) preparing a fibrous spinning solution by: removing of sericin from silk fiber (Step a); preparing silk fibroin solution by washing, drying and dialyzing sericinremoved silk fiber (Step b); preparing silk fibroin sponge by lyophilizing the silk fibroin solution (Step c); and dissolving the silk fibroin sponge with designated solvent and filtering the product (Step d); (Step 2) producing a silk nanofiber of conduit-shape having a thickness of 0.1 - 0.3mm by electrospinning the fibrous spinning solution prepared in Step 1 into a cylindrical collecting part coated with polyethyleneoxide, wherein the collecting part spins at 100 - 300 rpm, and wherein the silk nanofibers have a diameter of 200 - 400nm and are stacked layer upon layer to form a porous conduit-shape; and (Step 3) separating the silk nanofiber of conduit-shape produced in Step 2 from the collecting part by submerging the collecting part in methanol or ethanol to insolubilize the silk nanofiber; and submerging in water for separation to thereby obtain a silk nanofiber nerve conduit, wherein the size of the pores formed on the silk nanofiber nerve conduit is between 50 and 250 μm. (Step 1) preparing a fibrous spinning solution by: removing of sericin from silk fiber (Step a); preparing silk fibroin solution by washing, drying and dialyzing sericinremoved silk fiber (Step b); preparing silk fibroin sponge by lyophilizing the silk fibroin solution (Step c); and dissolving the silk fibroin sponge with designated solvent and filtering the product (Step d); removing of sericin from silk fiber (Step a); preparing silk fibroin solution by washing, drying and dialyzing sericinremoved silk fiber (Step b); preparing silk fibroin sponge by lyophilizing the silk fibroin solution (Step c); and dissolving the silk fibroin sponge with designated solvent and filtering the product (Step d); (Step 2) producing a silk nanofiber of conduit-shape having a thickness of 0.1 - 0.3mm by electrospinning the fibrous spinning solution prepared in Step 1 into a cylindrical collecting part coated with polyethyleneoxide, wherein the collecting part spins at 100 - 300 rpm, and wherein the silk nanofibers have a diameter of 200 - 400nm and are stacked layer upon layer to form a porous conduit-shape; and (Step 3) separating the silk nanofiber of conduit-shape produced in Step 2 from the collecting part by submerging the collecting part in methanol or ethanol to insolubilize the silk nanofiber; and submerging in water for separation to thereby obtain a silk nanofiber nerve conduit, wherein the size of the pores formed on the silk nanofiber nerve conduit is between 50 and 250 μm.
A method for controlling routines across databases in order to manipulate data in a plurality of database units (30, 30', 30", 30"') in a quasi-parallel manner, wherein - a plurality of input systems is connected to a central unit, - each database unit (30, 30', 30", 30'") comprises a database (31, 31', 31", 31'"), an application element (32, 32', 32", 32'") and an application routine which can be executed on the application element (32, 32', 32", 32'"), - each database unit (30, 30', 30", 30'") is allocated a unique information class (40, 40', 40", 40'"), - information elements (41, 41') of a unique information class (40, 40', 40", 40'") are deposited in each database unit (30, 30', 30", 30'"), wherein the method comprises the following steps: - an information group is input into the central unit by means of an input system, wherein the information group contains a plurality of information elements (41, 41) and each information element (41, 41') is allocated to an information class (40, 40', 40", 40'"), - in an allocation routine in the central unit the information group is broken down into the information elements (41, 41'), - the allocation routine transmits the information elements (41, 41') depending on the information class (40, 40', 40", 40'") to the database unit (30, 30', 30", 30'") allocated to the information class (40, 40', 40", 40'"), - the application routines in the database units (30, 30', 30", 30'") break down the information elements (41, 41') into sub-elements (42, 42'), - the sub-elements (42, 42') are processed in a quasi-parallel manner in the databases (31, 31', 31", 31'"). - a plurality of input systems is connected to a central unit, - each database unit (30, 30', 30", 30'") comprises a database (31, 31', 31", 31'"), an application element (32, 32', 32", 32'") and an application routine which can be executed on the application element (32, 32', 32", 32'"), - each database unit (30, 30', 30", 30'") is allocated a unique information class (40, 40', 40", 40'"), - information elements (41, 41') of a unique information class (40, 40', 40", 40'") are deposited in each database unit (30, 30', 30", 30'"), - an information group is input into the central unit by means of an input system, wherein the information group contains a plurality of information elements (41, 41) and each information element (41, 41') is allocated to an information class (40, 40', 40", 40'"), - in an allocation routine in the central unit the information group is broken down into the information elements (41, 41'), - the allocation routine transmits the information elements (41, 41') depending on the information class (40, 40', 40", 40'") to the database unit (30, 30', 30", 30'") allocated to the information class (40, 40', 40", 40'"), - the application routines in the database units (30, 30', 30", 30'") break down the information elements (41, 41') into sub-elements (42, 42'), - the sub-elements (42, 42') are processed in a quasi-parallel manner in the databases (31, 31', 31", 31'").