mhurhangee/ep-ind-claims huggingface dataset:
A dental impression material comprising (i) a polymerizable composition containing a compound having repeating units of the following formula: wherein R 1 represents a hydrogen atom or a linear C 1-6 alkyl group, or a branched or cyclic C 3-6 alkyl group; L represents a divalent organic linker group which contains one or more monovalent or divalent organopolysiloxane groups and/or one or more monovalent or divalent perfluorohydrocarbyl groups; and n is an integer of at least 1; (ii) one or more compounds copolymerizable with the compound having repeating units of formula; and (iii) a polymerization initiator system. (i) a polymerizable composition containing a compound having repeating units of the following formula: wherein R 1 represents a hydrogen atom or a linear C 1-6 alkyl group, or a branched or cyclic C 3-6 alkyl group; L represents a divalent organic linker group which contains one or more monovalent or divalent organopolysiloxane groups and/or one or more monovalent or divalent perfluorohydrocarbyl groups; and n is an integer of at least 1; R 1 represents a hydrogen atom or a linear C 1-6 alkyl group, or a branched or cyclic C 3-6 alkyl group; L represents a divalent organic linker group which contains one or more monovalent or divalent organopolysiloxane groups and/or one or more monovalent or divalent perfluorohydrocarbyl groups; and n is an integer of at least 1; (ii) one or more compounds copolymerizable with the compound having repeating units of formula; and (iii) a polymerization initiator system.
A transmission device comprising: a generator configured to generate a first combination including (i) identification information associating area information indicating an area where data should be received and a timing when the area information should be transmitted, and (ii) the area information and that generates a second combination including the identification information in the first combination and data; and a transmitter configured to transmit one of the first combination and the second combination generated by the generator to a base station via a network, wherein the generator is configured to generate the second combination at a further timing subsequent to the timing associated with the identification information in the first combination, and the transmitter is configured to transmit the first combination at the timing associated with the identification information in the first combination and transmits the second combination at the further timing. a generator configured to generate a first combination including (i) identification information associating area information indicating an area where data should be received and a timing when the area information should be transmitted, and (ii) the area information and that generates a second combination including the identification information in the first combination and data; and a transmitter configured to transmit one of the first combination and the second combination generated by the generator to a base station via a network, wherein the generator is configured to generate the second combination at a further timing subsequent to the timing associated with the identification information in the first combination, and the transmitter is configured to transmit the first combination at the timing associated with the identification information in the first combination and transmits the second combination at the further timing.
A method for preparing an electrolytic copper foil for a lithium secondary battery, the method comprising conducting an electrolytic deposition in a copper sulfate electrolyte, wherein a concentration of TOC (Total Organic Carbon) in the copper sulfate electrolyte is 1 g/L or less, a concentration of Ag in the copper sulfate electrolyte is 0.5 g/L or less, and a current density applied during the electrolytic deposition is 30 to 80 ASD.
A fuselage comprising a top curved upwards in a middle of the fuselage, wherein lateral edges of the top are bent upwards thus forming an aerodynamic channel, a front wing secured in front of the middle of the fuselage, streamlined aerodynamic surfaces, aviation engines in nacelles, wherein at least two front aviation engines are secured on pylons within limits of lateral sides of the aerodynamic channel, said pylons attached on an upper side of the fuselage in front of the aerodynamic channel and in front of and above an attachment area of the front wing to the fuselage, and wherein rear aviation engines are secured on pylons to the upper side of the fuselage in front of the aerodynamic channel and behind the front aviation engines, preferably within the limits of the lateral sides of the aerodynamic channel, a rear wing secured to the fuselage behind and above the front wing, fins with rudders secured to a robust frame of the fuselage between lateral sides of the fuselage, a stabilizer with a rudder attached between the fins, wherein the stabilizer is made controllable, wherein the aerodynamic channel comprises a front open portion and a rear tube-like portion, said tube-like portion being bent along the top of the fuselage and arranged above a cargo cabin, above and behind the front wing and behind the aviation engines in their high-velocity air flow, wherein irrespectively of movement speed of the fuselage, different positive attack angles of the front wing and the front aviation engines as well as the rear wing and the rear aviation engines are set in respect of the fuselage, said angles being in the range from +2° to 9° that are less than the beginning of stall of surface turbulent layers of a high-velocity air flow and at which angles the aviation engines create the highest positive lifting force in the aerodynamic channel and on the wings (14, 16), wherein attack angles of the front aviation engines and the front wing are greater than attack angles of the rear aviation engines and the rear wing, thus causing increase of an area of steady balance between the front wing and the rear wing, and wherein widths of the fuselage and the aerodynamic channel are greater than a height of the fuselage in the highest point of the fuselage.
An aqueous UV free radical curable inkjet ink containing a liquid phase A dispersed in a continuous liquid phase B by a polymeric dispersant, wherein the liquid phase A contains at least a photoinitiator, a colour pigment, and one or more polymerizable compounds; and wherein the continuous liquid phase B contains water and optionally one or more organic solvents.
A method for processing of high acidic crude oil by thermal cracking process, wherein the said method comprises the steps of: a) desalting high acidic crude oil to obtain desalted crude; b) separating the desalted crude in a pre-fractionator column into lighter hydrocarbon material and heavier boiling material, wherein the lighter hydrocarbon material does not contain acidic compounds; c) routing the heavier boiling material to the bottom section of a fractionator column and mixing with internal recycle component to obtain a secondary feed; d) heating the secondary feed obtained in step (c) to a high temperature to obtain a hot feed; e) thermally reacting the hot feed obtained in step (d) in reactors to obtain product vapors; f) routing the product vapors obtained in step (e) to the fractionator column for fractionation into product fractions, wherein the product fractions comprise of offgases with naphtha, light gasoil product, heavy gasoil, and fuel oil; g) passing the offgases with naphtha obtained in step (f) to a gas separation section to separate gaseous products comprising of fuel gas and LPG from naphtha product; h) passing the heavy gasoil stream obtained in step (f) to a secondary processing unit to obtain products including naphtha, wherein the secondary processing unit is at least one of hydrocracker unit and fluid catalytic cracking unit; and i) routing the lighter hydrocarbon material obtained in step (b), naphtha separated in step (g) and the naphtha obtained in step (h) to naphtha/gasoline treatment section to obtain desired lighter product. a) desalting high acidic crude oil to obtain desalted crude; b) separating the desalted crude in a pre-fractionator column into lighter hydrocarbon material and heavier boiling material, wherein the lighter hydrocarbon material does not contain acidic compounds; c) routing the heavier boiling material to the bottom section of a fractionator column and mixing with internal recycle component to obtain a secondary feed; d) heating the secondary feed obtained in step (c) to a high temperature to obtain a hot feed; e) thermally reacting the hot feed obtained in step (d) in reactors to obtain product vapors; f) routing the product vapors obtained in step (e) to the fractionator column for fractionation into product fractions, wherein the product fractions comprise of offgases with naphtha, light gasoil product, heavy gasoil, and fuel oil; g) passing the offgases with naphtha obtained in step (f) to a gas separation section to separate gaseous products comprising of fuel gas and LPG from naphtha product; h) passing the heavy gasoil stream obtained in step (f) to a secondary processing unit to obtain products including naphtha, wherein the secondary processing unit is at least one of hydrocracker unit and fluid catalytic cracking unit; and i) routing the lighter hydrocarbon material obtained in step (b), naphtha separated in step (g) and the naphtha obtained in step (h) to naphtha/gasoline treatment section to obtain desired lighter product.
Device for crimping a crimp contact piece onto a wire, wherein the crimp contact piece is fed to the device while being held at a feed belt, comprising a crimp anvil configured to support the crimp contact piece during a crimping process, a crimper configured to reshape areas to be reshaped of the crimp contact piece supported at the crimp anvil in the crimping process in a relative motion between the crimp anvil and the crimper, and a feed belt guiding device for guiding the feed belt, characterized in that the crimper is provided vertically below the crimp anvil, wherein the device is configured such that the crimp anvil is moved together with the crimp contact piece supported in or at the crimp anvil towards the crimper during the crimping process, and the feed belt guiding device is moved together with the crimp anvil towards the crimper at least temporarily before and/or during the crimping process.
A system for delivering a therapeutic amount of nitric oxide, comprising: a reservoir assembly including a reservoir including a restrictor, wherein the restrictor includes a capillary tube and is covered by a metal sheath and a heating element, and wherein the restrictor includes a first end and a second end, wherein the capillary tube is coupled to the reservoir via an adaptor and the reservoir includes a nitrogen dioxide source, wherein the first end of the restrictor is coupled to the reservoir; a permeation tube, wherein the permeation tube is connected to the reservoir assembly outside of the reservoir assembly; a gas supply; and a delivery conduit for delivering a therapeutic amount of nitric oxide including at least one cartridge, wherein the at least one cartridge comprises a surface-activated material and a reducing agent, and a patient interface. a reservoir assembly including a reservoir including a restrictor, wherein the restrictor includes a capillary tube and is covered by a metal sheath and a heating element, and wherein the restrictor includes a first end and a second end, wherein the capillary tube is coupled to the reservoir via an adaptor and the reservoir includes a nitrogen dioxide source, wherein the first end of the restrictor is coupled to the reservoir; a permeation tube, wherein the permeation tube is connected to the reservoir assembly outside of the reservoir assembly; a gas supply; and a delivery conduit for delivering a therapeutic amount of nitric oxide including at least one cartridge, wherein the at least one cartridge comprises a surface-activated material and a reducing agent, and a patient interface. at least one cartridge, wherein the at least one cartridge comprises a surface-activated material and a reducing agent, and a patient interface.
Hydrogen storage means comprising a composite material comprising a hydrogenatable material, wherein the composite material comprises, in a first region, at least one matrix comprising at least one polymer into which the hydrogenatable material is embedded, and comprises, in another, second region, one or more layers, wherein at least one of the layers has one of the following principal functions: hydrogen storage, heat conduction or gas conduction; wherein the first and second region are compressed together at pressures from 500 to 6000 bar and form a composite region.
A method, comprising; Identifying a diversion of communication of a User Equipment unit, UE, from a source Node B to a target Node B; reestablishing communication between the UE and the source Node B subsequent to the diversion of communication upon detecting a triggering event (804;1004); characterized by: synchronizing one or more discontinuous transmission, DTX, or discontinuous reception, DRX, configurations of the UE with respect to one or more DTX or DRX configuration parameters ordered by the source Node B by: identifying last DTX and DRX configurations according to at least one of respective DTX configuration commands received by the UE after a DTX activation window subsequent to initiation of the diversion or respective DRX configuration commands received by the UE after a DRX activation window subsequent to Initiation of the diversion (908; 901: 912); and reverting associated DTX and DRX configurations of the UE to respective last DTX and DRX configurations. synchronizing one or more discontinuous transmission, DTX, or discontinuous reception, DRX, configurations of the UE with respect to one or more DTX or DRX configuration parameters ordered by the source Node B by: identifying last DTX and DRX configurations according to at least one of respective DTX configuration commands received by the UE after a DTX activation window subsequent to initiation of the diversion or respective DRX configuration commands received by the UE after a DRX activation window subsequent to Initiation of the diversion (908; 901: 912); and reverting associated DTX and DRX configurations of the UE to respective last DTX and DRX configurations.
An oligonucleotide comprising a sequence of formula II: 5'-A+TG+GC+TG+TA+GACTG+T+T-3' wherein A, T, G and C are deoxyribonucleotide building blocks and wherein +G and +T are bridged nucleotide building blocks. wherein A, T, G and C are deoxyribonucleotide building blocks and wherein +G and +T are bridged nucleotide building blocks.
A seat element comprising a supporting structure, a padding resting on the supporting structure and configured to act as a support for a user and a ventilation system including at least one fan and at least one duct (11, 11A) communicating the padding and the fan, the duct (11, 11A) being made of a flexible material and having a section which is non-constant over its length characterised in that the flexible material preferably comprises a polyolefin foam and/or ethylene-propylene-diene monomer (EPDM) and/or butadiene-acrylonitrile and/or a thermoformed non-woven fabric, said non-constant section being adapted so that a speed of movement of the air along the duct (11, 11A) is uniform along the duct (11, 11A), the duct (11, 11A) comprises a plurality of orifices forming fluid inlets and/or outlets and the section of the duct (11, 11A) is larger in the proximity of the fan and gradually decreases depending on the number of orifices and their positions and dimensions of respective sections.
A sensor device comprising: an optical device having a field of view which enlarges as advancing toward one direction from a predetermined position; and a housing which comprises a transmission unit crossing the field of view and accommodates the optical device, wherein the transmission unit includes a first side, and a second side located on an opposite side to the first side, wherein a width of the transmission unit on a side with the second side is narrower than a width of the transmission unit on a side with the first side, and wherein the second side of the transmission unit is located closer to the predetermined position in the one direction than the first side of the transmission unit, characterized in that at least one of a front surface of the transmission unit and a rear surface of the transmission unit is curved. an optical device having a field of view which enlarges as advancing toward one direction from a predetermined position; and a housing which comprises a transmission unit crossing the field of view and accommodates the optical device, wherein the transmission unit includes a first side, and a second side located on an opposite side to the first side, wherein a width of the transmission unit on a side with the second side is narrower than a width of the transmission unit on a side with the first side, and wherein the second side of the transmission unit is located closer to the predetermined position in the one direction than the first side of the transmission unit, characterized in that at least one of a front surface of the transmission unit and a rear surface of the transmission unit is curved.
An electric device to/from which a battery pack retaining a battery cell is attachable/detachable, characterized by: a device main body which is provided with an attachment part to/from which the battery pack is attached/detached; the device main body including: a guide part which is provided in the attachment part and which determines a direction of the attachment/detachment of the battery pack; a device-side terminal which is provided in the attachment part and which is connected to a battery-side terminal provided in the battery pack; a terminal holder by which the device-side terminal is attached to the attachment part; and a seal member which is provided in the attachment part and which seals a connecting part between the battery-side terminal and the device-side terminal, wherein the plurality of device-side terminals are embedded in the terminal holder, and wherein the seal member being interposed between the attachment part and the terminal holder. a device main body which is provided with an attachment part to/from which the battery pack is attached/detached; the device main body including: a guide part which is provided in the attachment part and which determines a direction of the attachment/detachment of the battery pack; a device-side terminal which is provided in the attachment part and which is connected to a battery-side terminal provided in the battery pack; a terminal holder by which the device-side terminal is attached to the attachment part; and a seal member which is provided in the attachment part and which seals a connecting part between the battery-side terminal and the device-side terminal, wherein the plurality of device-side terminals are embedded in the terminal holder, and wherein the seal member being interposed between the attachment part and the terminal holder. a guide part which is provided in the attachment part and which determines a direction of the attachment/detachment of the battery pack; a device-side terminal which is provided in the attachment part and which is connected to a battery-side terminal provided in the battery pack; a terminal holder by which the device-side terminal is attached to the attachment part; and a seal member which is provided in the attachment part and which seals a connecting part between the battery-side terminal and the device-side terminal, wherein the plurality of device-side terminals are embedded in the terminal holder, and wherein the seal member being interposed between the attachment part and the terminal holder.
A tire vulcanizing method for vulcanizing a green tire by a mold including a tread mold comprising a plurality of segments arranged in a tire circumferential direction and upper and lower side molds (5U, 5L), including a tire removal step of removing the vulcanized tire from the mold after vulcanization, wherein the tire removal step includes a stage in which each of the upper and the lower side molds is moved inward in a tire axial direction so as to deform the vulcanized tire in a direction in which a bead width of the vulcanized tire is decreased, and a stage in which, in the deformed state of the vulcanized tire, each of the segments is moved outward in a tire radial direction so that the segments are removed from the vulcanized tire, characterized in that a distance in the tire radial direction between a bead base line and a split position between the tread mold and the upper and the lower molds (5U, 5L) is smaller than 1/2 of a tire section height. the tire removal step includes a stage in which each of the upper and the lower side molds is moved inward in a tire axial direction so as to deform the vulcanized tire in a direction in which a bead width of the vulcanized tire is decreased, and a stage in which, in the deformed state of the vulcanized tire, each of the segments is moved outward in a tire radial direction so that the segments are removed from the vulcanized tire, characterized in that a distance in the tire radial direction between a bead base line and a split position between the tread mold and the upper and the lower molds (5U, 5L) is smaller than 1/2 of a tire section height.