mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device structure, comprising: a substrate comprising a full or partial wafer of semiconductor material; at least one via hole extending partially through the semiconductor material of the substrate; a dielectric coating on surfaces of the at least one via hole; wherein: the dielectric coating includes a dielectric layer comprising a low-K dielectric material having a dielectric constant of K≈2, an adhesion material different from the dielectric material of the dielectric layer between the dielectric layer and the surfaces of the at least one via hole, wherein the adhesion material comprises an oxide, characterized in that: the dielectric coating includes another adhesion material different from the dielectric layer and coating the dielectric layer, wherein the another adhesion material comprises an oxide. a substrate comprising a full or partial wafer of semiconductor material; at least one via hole extending partially through the semiconductor material of the substrate; a dielectric coating on surfaces of the at least one via hole; wherein: the dielectric coating includes a dielectric layer comprising a low-K dielectric material having a dielectric constant of K≈2, an adhesion material different from the dielectric material of the dielectric layer between the dielectric layer and the surfaces of the at least one via hole, wherein the adhesion material comprises an oxide, characterized in that: the dielectric coating includes another adhesion material different from the dielectric layer and coating the dielectric layer, wherein the another adhesion material comprises an oxide.
A method of preparing an EUV lithography member, comprising the steps of homogenization treating an ingot of titania-doped quartz glass by a zone melting method using at least two heating burners, wherein the titania-doped quartz glass after the homogenization treatment has a diameter of at least 220 mm, and forming it to form the EUV lithography member, but without using hot forming in which a die is charged with the ingot and the assembly held in a vacuum melting furnace in a furnace atmosphere of an inert gas at a temperature and for a time to reshape the ingot.
A leg-rest assembly (4, 4') for a seat, comprising - a leg support (10, 10') configured to be pivotably mounted to a seat support structure, - wherein the leg support (10, 10') comprises a main portion (10.1, 16, 16') and at least one extension portion (10.2, 10.3, 17, 17') which is longitudinally displaceable coupled to the main portion (10.1, 16, 16'), - one power-driven adjusting device for pivoting the leg support (10, 10') relative to the seat support structure, - wherein the leg support (10, 10') is pivotable between a first position (P1.1) and at least a second position (P3.1) relative to the seat support structure by the adjusting device, and - a displacement mechanism coupled to the leg support (10, 10') and which is configured to mechanically control a longitudinal displacement of the extension portion (10.2, 10.3, 17, 17') depending on a pivot movement of the leg support (10, 10'), - the displacement mechanism comprises at least one force transmission configuration (12, 12') and at least one biasing element (13 to 13'"), wherein the force transmission configuration is configured to mechanically retract the extension portion (10.2, 10.3, 17, 17') relative to the main portion (10.1, 16, 16') as the leg support (10, 10') pivots from the second position (P3.1) into the first position (P1.1), and the biasing element (13 to 13") is configured to mechanically push the extension portion (10.2, 10.3, 17, 17') relatively away from the main portion (10.1, 16, 16') as the leg support (10, 10') pivots from the first position (P1.1) into the second position (P3.1). - a leg support (10, 10') configured to be pivotably mounted to a seat support structure, - wherein the leg support (10, 10') comprises a main portion (10.1, 16, 16') and at least one extension portion (10.2, 10.3, 17, 17') which is longitudinally displaceable coupled to the main portion (10.1, 16, 16'), - wherein the leg support (10, 10') comprises a main portion (10.1, 16, 16') and at least one extension portion (10.2, 10.3, 17, 17') which is longitudinally displaceable coupled to the main portion (10.1, 16, 16'), - one power-driven adjusting device for pivoting the leg support (10, 10') relative to the seat support structure, - wherein the leg support (10, 10') is pivotable between a first position (P1.1) and at least a second position (P3.1) relative to the seat support structure by the adjusting device, and - wherein the leg support (10, 10') is pivotable between a first position (P1.1) and at least a second position (P3.1) relative to the seat support structure by the adjusting device, and - a displacement mechanism coupled to the leg support (10, 10') and which is configured to mechanically control a longitudinal displacement of the extension portion (10.2, 10.3, 17, 17') depending on a pivot movement of the leg support (10, 10'), - the displacement mechanism comprises at least one force transmission configuration (12, 12') and at least one biasing element (13 to 13'"),
A method for producing a cured article of a hydraulic composition, comprising the steps of: step 1 of preparing a hydraulic composition by mixing glycerol, cement, aggregate, water and, optionally, an additional sulfate, the hydraulic composition comprising a sulfate ion from the sulfate ion contained in the cement and the additional sulfate, such that a molar ratio of sulfate ion to glycerol, sulfate ion/glycerol=, is 5.0 to 20 and the content of sulfate ion is 3.0 to 15 parts by weight to 100 parts by weight of cement; and step 2 of aging and curing the hydraulic composition obtained in the step 1. step 1 of preparing a hydraulic composition by mixing glycerol, cement, aggregate, water and, optionally, an additional sulfate, the hydraulic composition comprising a sulfate ion from the sulfate ion contained in the cement and the additional sulfate, such that a molar ratio of sulfate ion to glycerol, sulfate ion/glycerol=, is 5.0 to 20 and the content of sulfate ion is 3.0 to 15 parts by weight to 100 parts by weight of cement; and step 2 of aging and curing the hydraulic composition obtained in the step 1.
A recombinant poxvirus vector comprising a nucleic acid sequence operably linked to a poxviral promoter that directs transcription of the nucleic acid sequence to generate a transcribed alphaviral replicon capable of amplification as RNA, wherein the transcribed alphaviral replicon comprises at least one viral promoter operably linked to a heterologous sequence of interest, and encodes a polymerase specific for replication of the viral replicon, wherein the polymerase is mutated alphaviral nsP2; wherein the alphaviral nsP2 polymerase is mutated at leucine 713, wherein leucine 713 is changed to an amino acid selected from the group consisting of alanine, arginine, glutamine, threonine, and phenylalanine; or wherein the alphaviral nsP2 polymerase is mutated at serine 259, wherein serine 259 is changed to proline; or wherein the alphaviral nsP2 polymerase is mutated at arginine 650, wherein arginine 650 is changed to aspartate; or wherein the alphaviral nsP2 polymerase is mutated at arginine 650 and at serine 259, wherein arginine 650 is changed to aspartate and serine 259 is changed to proline.
Process for processing offgas from a steelworks and/or a smelting works, wherein the offgas contains carbon dioxide and/or carbon monoxide and is fed, at least partly together with a hydrogen-containing gas (2, 6) to a process for forming dimethyl ether, as a result of which a DME-containing product gas is formed, a ratio of hydrogen to carbon monoxide weighted by the carbon dioxide concentration c H ⁢ 2 - c CO ⁢ 2 c CO + c CO ⁢ 2 of from 0.9 to 1.1 is set at the inlet of the process for forming dimethyl ether, the DME-containing product gas is fed to a process for converting dimethyl ether into olefins, as a result of which an olefin-containing product gas is formed, and olefins, in particular ethylene and/or propylene, are separated off from the olefin-containing product gas by means of a separation process.
A method for service control via an I1 interface, comprising: sending a Session Initiation Protocol Invite message to a user equipment through a Gm interface; and if receiving a response message returned by the user equipment, wherein the response message indicates that the user equipment chooses to use a circuit switched bearer and use an I1 interface for control, sending an I1 Invite message to the user equipment through the I1 interface, wherein the I1 Invite message carries information indicating that Gm interface control falls back to the I1 interface control and information used to associate the Session Initiation Protocol Invite message. sending a Session Initiation Protocol Invite message to a user equipment through a Gm interface; and if receiving a response message returned by the user equipment, wherein the response message indicates that the user equipment chooses to use a circuit switched bearer and use an I1 interface for control, sending an I1 Invite message to the user equipment through the I1 interface, wherein the I1 Invite message carries information indicating that Gm interface control falls back to the I1 interface control and information used to associate the Session Initiation Protocol Invite message.
A method for operating a station during a discovery process, the method comprising: transmitting (1411, 1461), by the station, a first Layer 2 frame to an access point, AP, the first Layer 2 frame including a first version number associated with first higher layer information and an identifier of a protocol associated with both the first higher layer information and the first version number; receiving (1413, 1463), by the station, a second Layer 2 frame from the AP including an indication that a second version number associated with a second higher layer information is the same as the first version number; and deciding, by the station, whether to perform a network selection process in accordance with the first higher layer information; wherein the first Layer 2 frame is an IEEE 802.11 GAS Initial Request frame and the second Layer 2 frame is an IEEE 802.11 GAS Initial Response frame. transmitting (1411, 1461), by the station, a first Layer 2 frame to an access point, AP, the first Layer 2 frame including a first version number associated with first higher layer information and an identifier of a protocol associated with both the first higher layer information and the first version number; receiving (1413, 1463), by the station, a second Layer 2 frame from the AP including an indication that a second version number associated with a second higher layer information is the same as the first version number; and deciding, by the station, whether to perform a network selection process in accordance with the first higher layer information; wherein the first Layer 2 frame is an IEEE 802.11 GAS Initial Request frame and the second Layer 2 frame is an IEEE 802.11 GAS Initial Response frame.
Zeolite material in the form of FAU zeolite nanocrystal aggregates chosen from zeolites X, MSX and LSX, having at least the following characteristics: • Si/Al atomic ratio of between 1 and 1.4, limits inclusive, • external surface area of between 20 m 2.g -1 and 80 m 2.g -1, preferably between 30 m 2.g- 1 and 80 m 2.g -1, more preferably between 40 and 60 m 2.g -1, • number-mean diameter of the nanocrystals of between 50 nm and 500 nm, preferably between 50 nm and 400 nm, more preferably between 100 nm and 400 nm, more preferentially between 100 nm and 300 nm, limits inclusive, and • number-mean aggregate size of between 0.2 μm and 10 μm, preferably between 0.3 μm and 10 μm, more preferably between 0.5 μm and 8 μm. • Si/Al atomic ratio of between 1 and 1.4, limits inclusive, • external surface area of between 20 m 2.g -1 and 80 m 2.g -1, preferably between 30 m 2.g- 1 and 80 m 2.g -1, more preferably between 40 and 60 m 2.g -1, • number-mean diameter of the nanocrystals of between 50 nm and 500 nm, preferably between 50 nm and 400 nm, more preferably between 100 nm and 400 nm, more preferentially between 100 nm and 300 nm, limits inclusive, and • number-mean aggregate size of between 0.2 μm and 10 μm, preferably between 0.3 μm and 10 μm, more preferably between 0.5 μm and 8 μm.
A speed control method for controlling a speed of a marine vessel having a hull, characterised in that the speed control method comprising determining a vessel speed based on a first moving average value which is a moving average value of the vertical speed (Vz) of the hull or a moving average value of a vertical acceleration (Az) of the hull.
Transporting and storing device having adjustable capacity for tobacco industry rod-like elements, the device comprising at least one circular conveyor (9, 11, 13) located on a stationary support element (3, 5, 7) of the device and at least one circular conveyor (8, 10, 12) of the device located on a rotary support element (2, 4, 6), wherein the conveyors (8, 9, 10, 11, 12, 13) are arranged one above another, and wherein the device comprises a cleaning system, characterised in that the cleaning system comprises cleaning units (16, 17, 18, 19, 20, 21) attached to the support elements (14, 2, 3, 4, 5, 6) and oriented towards a transporting surface (8a, 9a, 10a, 11a, 12a, 13a) of the conveyor (8, 9, 10, 11, 12, 13) located below the particular cleaning unit (16, 17, 18, 19, 20, 21) and configured to remove contaminations from the transporting surface of that conveyor, and in that at least one cleaning unit (16, 18, 20) is attached to the stationary support element (14, 3, 5) and at least one cleaning unit (17, 19, 21) is attached to the rotary support element (2, 4, 6).
A nuclearized hot-isostatic press system comprising: a high temperature HIP furnace a multi-wall vessel (110, 310) surrounding the furnace; multiple heads (175, 180) located on top and underneath the high temperature HIP furnace; a yoke and a yoke frame; and a lift mechanism configured to load and unload a HIP can to the high temperature HIP furnace, characterized in that the multi-walled vessel comprises a leak detection system contained between the walls and configured to detect a gas leak, a crack in a vessel wall, or both. a high temperature HIP furnace a multi-wall vessel (110, 310) surrounding the furnace; multiple heads (175, 180) located on top and underneath the high temperature HIP furnace; a yoke and a yoke frame; and a lift mechanism configured to load and unload a HIP can to the high temperature HIP furnace, characterized in that the multi-walled vessel comprises a leak detection system contained between the walls and configured to detect a gas leak, a crack in a vessel wall, or both.
A method of assembling and installing an underwing package to an underside of an aircraft wing, comprising: assembling the underwing package, comprising at least a pylon and an engine, using a build frame, wherein assembling the underwing package includes attaching the pylon to the build frame; attaching a transfer cart to the underwing package; lowering the underwing package and the transfer cart from the build frame; transporting the underwing package and the transfer cart to the underside of the aircraft wing; and transferring the underwing package from the transfer cart to the underside of the aircraft wing, wherein attaching the pylon to the build frame includes: attaching a forward attachment point of the pylon to a forward fitting of the build frame; releasably attaching an aft transfer system to the build frame; and attaching an aft attachment point of the pylon to the aft transfer system, wherein attaching the transfer cart to the underwing package includes connecting a thrust link between the aft transfer system and the transfer cart, characterised in that the aft transfer system includes a crank that is pivotally connected to a transfer fitting and attaching the aft attachment point of the pylon to the aft transfer system includes attaching the aft attachment point of the pylon to the crank. assembling the underwing package, comprising at least a pylon and an engine, using a build frame, wherein assembling the underwing package includes attaching the pylon to the build frame; attaching a transfer cart to the underwing package; lowering the underwing package and the transfer cart from the build frame; transporting the underwing package and the transfer cart to the underside of the aircraft wing; and transferring the underwing package from the transfer cart to the underside of the aircraft wing, wherein attaching the pylon to the build frame includes: attaching a forward attachment point of the pylon to a forward fitting of the build frame; releasably attaching an aft transfer system to the build frame; and attaching an aft attachment point of the pylon to the aft transfer system, attaching a forward attachment point of the pylon to a forward fitting of the build frame; releasably attaching an aft transfer system to the build frame; and attaching an aft attachment point of the pylon to the aft transfer system, wherein attaching the transfer cart to the underwing package includes connecting a thrust link between the aft transfer system and the transfer cart, characterised in that the aft transfer system includes a crank that is pivotally connected to a transfer fitting and attaching the aft attachment point of the pylon to the aft transfer system includes attaching the aft attachment point of the pylon to the crank.
A method for registering a mobile terminal with a node acting as a mobility anchor for mobile terminals, the anchor node being in communication with a data base and an access router, the method comprising the following steps performed by the anchor node: - providing support for a plurality of mobility management protocols, wherein the mobility management protocols are deployed in parallel within the protocol stack of the anchor node; - receiving, from the mobile terminal, a first registration message; - selectively handling the first registration message in accordance with the mobility management protocol associated with the first registration message; - sending, to the data base, based on the first registration message, a first identifier which is associated with the mobile terminal or a user thereof and protocol information about a first mobility management protocol that is associated with the mobile terminal; - receiving, from the data base, in response to the sent first identifier a network address; - forwarding the network address together with information about the first mobility management protocol to the access router; - receiving, from the mobile terminal, a second registration message; - sending, to the data base, based on the second registration message, a second identifier which is associated with the mobile terminal or a user thereof and protocol information about a second mobility management protocol that is associated with the mobile terminal; - receiving, from the data base, in response to the sent second identifier the same network address; and - forwarding the network address together with information about the second mobility management protocol to the access router. - providing support for a plurality of mobility management protocols, wherein the mobility management protocols are deployed in parallel within the protocol stack of the anchor node; - receiving, from the mobile terminal, a first registration message; - selectively handling the first registration message in accordance with the mobility management protocol associated with the first registration message; - sending, to the data base, based on the first registration message, a first identifier which is associated with the mobile terminal or a user thereof and protocol information about a first mobility management protocol that is associated with the mobile terminal; - receiving, from the data base, in response to the sent first identifier a network address; - forwarding the network address together with information about the first mobility management protocol to the access router; - receiving, from the mobile terminal, a second registration message; - sending, to the data base, based on the second registration message, a second identifier which is associated with the mobile terminal or a user thereof and protocol information about a second mobility management protocol that is associated with the mobile terminal; - receiving, from the data base, in response to the sent second identifier the same network address; and - forwarding the network address together with information about the second mobility management protocol to the access router.
A device for providing a mixed gas having a controlled steam-to-carbon ratio, the device for providing the mixed gas comprising an evaporation mixer provided with a natural gas inlet, a desalinated water inlet, a mixed gas outlet, a heat source inlet, and a heat source outlet, - wherein said device for providing said mixed gas comprises a steam separator for separation of liquid desalinated water and parts of the impurities produced during the transportation process, wherein said steam separator is provided with a steam separating inlet and a steam separating outlet and wherein said mixed gas outlet is connected to said inlet of said steam separator by a connecting pipeline provided with a temperature control device and a pressure control device, - wherein said heat source inlet is connected with a first flow rate adjusting valve, wherein said first flow rate adjusting valve and said temperature control device are connected with electronic control, characterized in that - said heat source inlet is connected with an end closer to the natural gas inlet of the evaporation mixer, wherein said heat source outlet is connected to an end closer to the mixed gas outlet of the evaporation mixer, - wherein said natural gas inlet is connected with a second flow rate adjusting valve, wherein said second flow rate adjusting valve and said pressure control device are connected with electronic control. - wherein said device for providing said mixed gas comprises a steam separator for separation of liquid desalinated water and parts of the impurities produced during the transportation process, wherein said steam separator is provided with a steam separating inlet and a steam separating outlet and wherein said mixed gas outlet is connected to said inlet of said steam separator by a connecting pipeline provided with a temperature control device and a pressure control device, - wherein said heat source inlet is connected with a first flow rate adjusting valve, wherein said first flow rate adjusting valve and said temperature control device are connected with electronic control, - said heat source inlet is connected with an end closer to the natural gas inlet of the evaporation mixer, wherein said heat source outlet is connected to an end closer to the mixed gas outlet of the evaporation mixer, - wherein said natural gas inlet is connected with a second flow rate adjusting valve, wherein said second flow rate adjusting valve and said pressure control device are connected with electronic control.