mhurhangee/ep-ind-claims huggingface dataset:
A wireless terminal configuration method, wherein a direct connection is established between a configuration device and a wireless terminal, and the method comprises: acquiring, by the configuration device, device identification information and configuration password information of the wireless terminal; sending, by the configuration device, configuration triggering information to the wireless terminal according to the device identification information of the wireless terminal; performing, by the configuration device, verification with the wireless terminal according to the configuration password information, to determine that the wireless terminal has ownership of the configuration password information; generating and sending, by the configuration device, credential information required for the wireless terminal to access a wireless access device and device identification information of the wireless access device to the wireless terminal, so that after the verification succeeds, the wireless terminal requests, according to the credential information and the device identification information of the wireless access device, to access the wireless access device; and sending, by the configuration device, the credential information and the device identification information of the wireless terminal to the wireless access device, so that the wireless access device processes, according to the credential information and the device identification information of the wireless terminal, the request of the wireless terminal to access the wireless access device. acquiring, by the configuration device, device identification information and configuration password information of the wireless terminal; sending, by the configuration device, configuration triggering information to the wireless terminal according to the device identification information of the wireless terminal; performing, by the configuration device, verification with the wireless terminal according to the configuration password information, to determine that the wireless terminal has ownership of the configuration password information; generating and sending, by the configuration device, credential information required for the wireless terminal to access a wireless access device and device identification information of the wireless access device to the wireless terminal, so that after the verification succeeds, the wireless terminal requests, according to the credential information and the device identification information of the wireless access device, to access the wireless access device; and sending, by the configuration device, the credential information and the device identification information of the wireless terminal to the wireless access device, so that the wireless access device processes, according to the credential information and the device identification information of the wireless terminal, the request of the wireless terminal to access the wireless access device.
A photoelectrochemical method for metal preservation comprising applying a coating including the following components on a metal surface and curing the coating: A) a film-forming component; and B) surface modified nano-scaled titanium dioxide, which consists of nano-scaled titanium dioxide particle as substrate and the nonionic surfactant covered on the nano-scaled titanium dioxide substrate surface; the particle diameter of the nano-scaled titanium dioxide substrate is 1-100 nm; the hydrophile-lipophile balance value of the nonionic surfactant is 1-10; and the content of the nonionic surfactant is 1-20 wt% based on the weight of nano-scaled titanium dioxide substrate wherein the content of the surface modified nano-scaled titanium dioxide is 0.1-10 wt% based on the total weight of the coating. A) a film-forming component; and B) surface modified nano-scaled titanium dioxide, which consists of nano-scaled titanium dioxide particle as substrate and the nonionic surfactant covered on the nano-scaled titanium dioxide substrate surface; the particle diameter of the nano-scaled titanium dioxide substrate is 1-100 nm; the hydrophile-lipophile balance value of the nonionic surfactant is 1-10; and the content of the nonionic surfactant is 1-20 wt% based on the weight of nano-scaled titanium dioxide substrate
Heating device provided with an enclosure which delimits a cavity, said device comprising a door or a wall incorporating multiple glazing comprising two, three or four substrates, said glazing comprising at least one transparent substrate coated, on each face, with a stack of thin layers, including: - on a first face, facing said cavity, a first stack which reflects the heat substantially owing to one or more functional layers based on a mixed indium tin oxide, - on the other face, facing the outside of the device, a second stack which reflects the heat substantially owing to one or more functional layers based on a metal selected from gold or silver, preferably silver, said glazing comprising at least one additional heat-reflecting coating which is deposited on at least one other substrate constituting the glazing and on the third face and/or on the fifth face of the glazing when viewed from the inside to the outside of said heating device, said first stack comprising, as the functional layer, a layer of indium tin oxide which comprises a proportion by weight from 85 to 95% indium oxide and from 15 to 5% tin oxide or of which the atomic percentage of Sn in the oxide is in a range extending from 5 to 70%. - on a first face, facing said cavity, a first stack which reflects the heat substantially owing to one or more functional layers based on a mixed indium tin oxide, - on the other face, facing the outside of the device, a second stack which reflects the heat substantially owing to one or more functional layers based on a metal selected from gold or silver, preferably silver, said glazing comprising at least one additional heat-reflecting coating which is deposited on at least one other substrate constituting the glazing and on the third face and/or on the fifth face of the glazing when viewed from the inside to the outside of said heating device, said first stack comprising, as the functional layer, a layer of indium tin oxide which comprises a proportion by weight from 85 to 95% indium oxide and from 15 to 5% tin oxide or of which the atomic percentage of Sn in the oxide is in a range extending from 5 to 70%.
Method for producing overlapping weld joints comprising the following method steps: (a) providing two components (10, 20) to be joined, each having at least one base (16, 26); (b) arranging the components (10, 20) in such a way that the bases (16, 26) face one another and the components (10, 20) overlap in an overlapping region that extends at least partially over both bases (16, 26); characterized by the following method steps: arranging at least one auxiliary tool such that one of the components (10, 20) is clamped between the auxiliary tool and the welding tool and both bases (16, 26) rest against the auxiliary tool and a recess in the auxiliary tool adjoins both bases (16, 26); and joining the components (10, 20) by welding in the overlapping region while forming at least one weld seam, at the edge of the overlapping region material from both bases (16, 26) being pressed into a recess on the auxiliary tool that adjoins both bases (16, 26). (a) providing two components (10, 20) to be joined, each having at least one base (16, 26); (b) arranging the components (10, 20) in such a way that the bases (16, 26) face one another and the components (10, 20) overlap in an overlapping region that extends at least partially over both bases (16, 26); characterized by the following method steps: arranging at least one auxiliary tool such that one of the components (10, 20) is clamped between the auxiliary tool and the welding tool and both bases (16, 26) rest against the auxiliary tool and a recess in the auxiliary tool adjoins both bases (16, 26); and joining the components (10, 20) by welding in the overlapping region while forming at least one weld seam, at the edge of the overlapping region material from both bases (16, 26) being pressed into a recess on the auxiliary tool that adjoins both bases (16, 26). arranging at least one auxiliary tool such that one of the components (10, 20) is clamped between the auxiliary tool and the welding tool and both bases (16, 26) rest against the auxiliary tool and a recess in the auxiliary tool adjoins both bases (16, 26); and joining the components (10, 20) by welding in the overlapping region while forming at least one weld seam, at the edge of the overlapping region material from both bases (16, 26) being pressed into a recess on the auxiliary tool that adjoins both bases (16, 26).
A computer-implemented method, comprising: at a computing device: receiving a digital certificate for a first entity, the digital certificate including a first public key for the first entity and a certification transaction identifier generated from a hash of a certification transaction, where the certification transaction includes a digital signature from a certificate authority, a first output to an address based on a second public key, and a second output having an information field that contains the first public key; obtaining a copy of the certification transaction from a blockchain based on the certification transaction identifier in the digital certificate; determining that the first output is an unspent transaction output; and determining that the first public key contained in the second output in the certification transaction matches a public key in the digital certificate. receiving a digital certificate for a first entity, the digital certificate including a first public key for the first entity and a certification transaction identifier generated from a hash of a certification transaction, where the certification transaction includes a digital signature from a certificate authority, a first output to an address based on a second public key, and a second output having an information field that contains the first public key; obtaining a copy of the certification transaction from a blockchain based on the certification transaction identifier in the digital certificate; determining that the first output is an unspent transaction output; and determining that the first public key contained in the second output in the certification transaction matches a public key in the digital certificate.
A low or solvent free epoxy system comprising: a hardener compound H comprising: a molecular structure (Y 1 -R 1 -Y 2), wherein R 1 is an ionic moiety, Y 1 comprises a nucleophilic group, Y 2 comprises a nucleophilic group, and including an ionic moiety A acting as a counter ion to Ri; and an epoxy compound E comprising: a molecular structure (Z 1 -R 2 -Z 2), wherein R 2 is an ionic moiety, Z 1 comprises an epoxide group, Z 2 comprises an epoxide group, and including an ionic moiety B acting as a counter ion to R 2, wherein R 1 and R 2 are of opposite charge, ionic moiety A and ionic moiety B are of opposite charge, and wherein R 1 and ionic moiety A are of opposite charge and R 2 and ionic moiety B are of opposite charge, and wherein ionic moiety A and ionic moiety B are capable to form a secondary ionic liquid. a hardener compound H comprising: a molecular structure (Y 1 -R 1 -Y 2), wherein R 1 is an ionic moiety, Y 1 comprises a nucleophilic group, Y 2 comprises a nucleophilic group, and including an ionic moiety A acting as a counter ion to Ri; and an epoxy compound E comprising: a molecular structure (Z 1 -R 2 -Z 2), wherein R 2 is an ionic moiety, Z 1 comprises an epoxide group, Z 2 comprises an epoxide group, and including an ionic moiety B acting as a counter ion to R 2, wherein R 1 and R 2 are of opposite charge, ionic moiety A and ionic moiety B are of opposite charge, and wherein R 1 and ionic moiety A are of opposite charge and R 2 and ionic moiety B are of opposite charge, and wherein ionic moiety A and ionic moiety B are capable to form a secondary ionic liquid. a molecular structure (Z 1 -R 2 -Z 2), wherein R 2 is an ionic moiety, Z 1 comprises an epoxide group, Z 2 comprises an epoxide group, and including an ionic moiety B acting as a counter ion to R 2, wherein R 1 and R 2 are of opposite charge, ionic moiety A and ionic moiety B are of opposite charge, and wherein R 1 and ionic moiety A are of opposite charge and R 2 and ionic moiety B are of opposite charge, and wherein ionic moiety A and ionic moiety B are capable to form a secondary ionic liquid.
A gas heat-pump system comprising: an air-conditioning system comprising a compressor (110, 112), an outdoor heat exchanger, an expander, an indoor heat exchanger and a refrigerant pipe; an engine configured to provide power for an operation of the compressor, and in which a mixed fuel, in which a fuel and air are mixed, is burned; a cooling water pump which compels a flow of cooling water for cooling the engine; a cooling water pipe connected to the cooling water pump, and configured to guide the flow of the cooling water; an auxiliary heat exchanger in which heat exchange between the cooling water flowing through the cooling water pipe and a refrigerant flowing through the refrigerant pipe is performed; a hot water heat exchanger in which heat exchange between the cooling water flowing through the cooling water pipe and a fluid supplied from a hot water supply tank is performed; a first flow switching part and a second flow switching part installed at the cooling water pipe; a cooling water tank in which the cooling water is stored; and a radiator installed at one side of an outdoor fan provided at the air-conditioning system; wherein cooling water discharged from the engine is guided to the hot water heat exchanger; characterized in that: the first flow switching part guides the cooling water discharged from the hot water heat exchanger to the second flow switching part and the second flow switching part guides the cooling water discharged from the first flow switching part to the radiator or the auxiliary heat exchanger. an air-conditioning system comprising a compressor (110, 112), an outdoor heat exchanger, an expander, an indoor heat exchanger and a refrigerant pipe; an engine configured to provide power for an operation of the compressor, and in which a mixed fuel, in which a fuel and air are mixed, is burned; a cooling water pump which compels a flow of cooling water for cooling the engine; a cooling water pipe connected to the cooling water pump, and configured to guide the flow of the cooling water; an auxiliary heat exchanger in which heat exchange between the cooling water flowing through the cooling water pipe and a refrigerant flowing through the refrigerant pipe is performed; a hot water heat exchanger in which heat exchange between the cooling water flowing through the cooling water pipe and a fluid supplied from a hot water supply tank is performed; a first flow switching part and a second flow switching part installed at the cooling water pipe; a cooling water tank in which the cooling water is stored; and a radiator installed at one side of an outdoor fan provided at the air-conditioning system; wherein cooling water discharged from the engine is guided to the hot water heat exchanger; the first flow switching part guides the cooling water discharged from the hot water heat exchanger to the second flow switching part and the second flow switching part guides the cooling water discharged from the first flow switching part to the radiator or the auxiliary heat exchanger.
Syringe comprising a syringe barrel for holding a medicine to be administered, an ejector unit arranged at a distal end of the syringe barrel, a syringe head arranged at a proximal end of the syringe barrel with a needle unit arranged in a guide sleeve and slidable therein comprising a cannula and a cannula holder and a pinion, by means of which the needle unit can be moved axially relative to a syringe barrel from a position of rest to an actuation position and a sealing element arranged at the distal end of the guide sleeve which in the position of the rest of the needle unit is unpierced by the cannula, and in the actuation position of the needle unit is pierced by the cannula, characterized in that the pinion comprises at least one guide knob, which can be moved into engagement optionally with one of two slide tracks provided in the guide sleeve, and the slide tracks are inclined in opposite directions.
An internally cooled valve, comprising a valve body having a valve head and a valve stem, wherein the valve body comprises at least one cavity in which coolant is situated, wherein the coolant is a nanofluid, characterized in that the nanofluid is a ternary nanofluid comprising at least two of the following types of nanoparticles, namely titanium particles, nano diamonds, silicon carbide particles, beryllium particles, boron nitride particles and / or graphene particles as dispersed particles, and that the nanofluid further comprises a dispersing additive that prevents the nanoparticles from combining to nanoparticle aggregates. a valve body having a valve head and a valve stem, wherein the valve body comprises at least one cavity in which coolant is situated, wherein the coolant is a nanofluid, characterized in that the nanofluid is a ternary nanofluid comprising at least two of the following types of nanoparticles, namely titanium particles, nano diamonds, silicon carbide particles, beryllium particles, boron nitride particles and / or graphene particles as dispersed particles, and that the nanofluid further comprises a dispersing additive that prevents the nanoparticles from combining to nanoparticle aggregates.
A method for producing a decorative and structured surface having different gloss levels comprising the following steps: - feeding of a workpiece (1.0) to a lacquer application device, - application of a first liquid lacquer layer (1.4) with a coarse structure in which a difference in thickness between thicker areas and thinner areas is at least 50 μm, in particular at least 100 μm, - feeding of the workpiece (1.0) to a digital printing station, - providing digital control data for the digital printing station, - digital spraying of droplets on partial areas of the first lacquer layer (1.4) on the workpiece (1.0) with a lacquer in order to apply a second lacquer layer (1.5) on the first lacquer layer (1.4), - at least partial, in particular digital, application of a third liquid lacquer layer (1.3) in order to create a fine structure, wherein after curing the second lacquer layer (1.5) has a different gloss level than the first lacquer layer (1.4), and the second lacquer layer (1.5) is applied by at least one digital print head, wherein to produce the third lacquer layer (1.3), a liquid lacquer is applied first and then droplets of the third lacquer layer (1.3) are sprayed into the still liquid material to produce a fine structure. - feeding of a workpiece (1.0) to a lacquer application device, - application of a first liquid lacquer layer (1.4) with a coarse structure in which a difference in thickness between thicker areas and thinner areas is at least 50 μm, in particular at least 100 μm, - feeding of the workpiece (1.0) to a digital printing station, - providing digital control data for the digital printing station, - digital spraying of droplets on partial areas of the first lacquer layer (1.4) on the workpiece (1.0) with a lacquer in order to apply a second lacquer layer (1.5) on the first lacquer layer (1.4), - at least partial, in particular digital, application of a third liquid lacquer layer (1.3) in order to create a fine structure, wherein
Glass forming machine which includes a blank station for forming a parison from a gob of molten glass and a blow station for forming the parison into a container and an invert mechanism which can move a neck ring from the blank station to the blow station by a rotary motion, characterized in that the glass forming machine includes a swab robot and a control device for the swab robot, wherein the control device is set up so that the swab robot can swab the neck ring when the neck ring is in an intermediate position between the blank station and the blow station.
Cutter for strip-like or tape-like materials of all types having an electromotor drive for two shearing blades (4, 5) which drives the shearing blades (4, 5) in a displaceable manner against a fixed knife, wherein the one shearing blade is designed as a vertically movable guillotine knife and in that the other shearing blade is designed as a pivot knife, wherein the electromotor drive (motor 3) acts in parallel on the movement drive of the two shearing blades (4, 5) which can be moved separately from one another and both execute a cutting movement against the fixed knife, wherein the electromotor drive is designed as a motor which drives a drive wheel in rotating manner, on which a carrier is arranged eccentrically to the rotational axis, characterised in that the carrier on the drive wheel engages at the same time in slotted guides (14, 15) of the two shearing blades (4, 5) and drives the latter together in a displaceable and/or pivotable manner.
A method for producing a particulate, stabilized lithium metal impression coated with alloy-forming elements, characterized in that lithium metal is brought into contact with film-forming precursors containing elements of the main groups 3 and 4 of the Periodic Table of Elements, wherein one or more passivating agent(s) of general formulas I or II are used as film-forming precursors: [AR 1 R 2 R 3 R 4]Li x or R 1 R 2 R 3 A-O-AR 4 R 5 R 6 wherein R 1 R 2 R 3 R 4 R 5 R 6 = independently of one another alkyl (C 1 -C 12), aryl, alkoxy, aryloxy or halogen (F, Cl, Br, I); or two radicals R together denote a 1,2-diolate, a 1,2- or 1,3-dicarboxylate or a 2-hydroxycarboxylate dianion; radicals R 1 to R 6 may contain additional functional groups, for example alkoxy groups; A = boron, aluminum, gallium, indium, thallium, silicon, germanium, tin, lead; x = 0 or 1 for B, Al, Ga, In, Tl; x = 0 for Si, Ge, Sn, Pb; when x = 0 and A = B, Al Ga, In, Tl, then R 4 is omitted, at temperatures in the range of above the lithium melting temperature of 180.5°C and 300°C under an inert gas in an organic, inert solvent as emulsion of the metal in the solvent. R 1 R 2 R 3 R 4 R 5 R 6 = independently of one another alkyl (C 1 -C 12), aryl, alkoxy, aryloxy or halogen (F, Cl, Br, I); or two radicals R together denote a 1,2-diolate, a 1,2- or 1,3-dicarboxylate or a 2-hydroxycarboxylate dianion; radicals R 1 to R 6 may contain additional functional groups, for example alkoxy groups; A = boron, aluminum, gallium, indium, thallium, silicon, germanium, tin, lead; x = 0 or 1 for B, Al, Ga, In, Tl; x = 0 for Si, Ge, Sn, Pb; when x = 0 and A = B, Al Ga, In, Tl, then R 4 is omitted,