mhurhangee/ep-ind-claims huggingface dataset:
An atomizer head assembly for atomizing cigarette liquid in an electronic cigarette, comprising: an outer tube, an inner tube disposed inside the outer tube, a liquid storage chamber formed between a wall of the inner tube and a wall of the outer tube, an atomizing chamber formed inside the inner tube, and one or more atomizing members located in the atomizing chamber, wherein one or more outer supporter openings are provided on a lateral side of a wall of the inner tube, communicating with the liquid storage chamber, and the one or more atomizing members are deposited on the wall of the inner tube by mounting ends of the atomizing members in the corresponding outer supporter openings such that the mounting ends are in fluid communicating with the liquid storage chamber, wherein each atomizing member comprises a liquid guide element and a heating element, wherein the heating element is coupled with the liquid guide element for heating and atomizing a cigarette liquid taken in by the liquid guide element, the atomizer head assembly being characterized in that one or more liquid inlet openings are provided on a lateral side of the wall of the outer tube such that when the atomizer head assembly is mounted inside a cigarette liquid cartridge containing cigarette liquid, the cigarette liquid can enter the liquid storage chamber passing through the liquid inlet openings, thereby allowing the liquid guide element to take in the cigarette liquid. an outer tube, an inner tube disposed inside the outer tube, a liquid storage chamber formed between a wall of the inner tube and a wall of the outer tube, an atomizing chamber formed inside the inner tube, and one or more atomizing members located in the atomizing chamber, wherein one or more outer supporter openings are provided on a lateral side of a wall of the inner tube, communicating with the liquid storage chamber, and the one or more atomizing members are deposited on the wall of the inner tube by mounting ends of the atomizing members in the corresponding outer supporter openings such that the mounting ends are in fluid communicating with the liquid storage chamber, wherein each atomizing member comprises a liquid guide element and a heating element, wherein the heating element is coupled with the liquid guide element for heating and atomizing a cigarette liquid taken in by the liquid guide element, the atomizer head assembly being characterized in that one or more liquid inlet openings are provided on a lateral side of the wall of the outer tube such that when the atomizer head assembly is mounted inside a cigarette liquid cartridge containing cigarette liquid, the cigarette liquid can enter the liquid storage chamber passing through the liquid inlet openings, thereby allowing the liquid guide element to take in the cigarette liquid.
A thermoelectric material comprising: a thermoelectric matrix comprising grains with a composition of Formula 1: Bi x ⁢ Sb 1 - x a ⁢ Te y ⁢ Se 1 - y b wherein, 1.8≤a≤2.2, 2.8≤b≤3.2, 0≤x≤1, and 0≤y≤1, characterised in that at least one grain boundary in said thermoelectric matrix comprises a plurality of dislocations. a thermoelectric matrix comprising grains with a composition of Formula 1: Bi x ⁢ Sb 1 - x a ⁢ Te y ⁢ Se 1 - y b wherein, 1.8≤a≤2.2, 2.8≤b≤3.2, 0≤x≤1, and 0≤y≤1, characterised in that at least one grain boundary in said thermoelectric matrix comprises a plurality of dislocations.
A wireless interconnect for transmitting and receiving signals at specified frequencies for short-range communication with high data rate capability, comprising: a transmitter (102,202) for modulating a carrier signal with an input data stream (112,214), wherein the modulated carrier signal is then fed to a transmitter antenna (114,216) comprising a differential dipole antenna that radiates the modulated carrier signal; and a receiver (104,206) for receiving the radiated carrier signal at a receiver antenna (116,218) comprising a differential dipole antenna and for converting the received carrier signal to a full swing digital signal as an output data stream (126,228); wherein the transmitter (102,202) and receiver (104,206) use asynchronous modulation and differential signaling for communicating between integrated circuit chips (102,104,202,206) or printed circuit boards (204,208); wherein the receiver (104,206) includes a self-mixer (120,222) comprising a differential-mutual-mixer that acts as an envelope detector and converts the received carrier signal by demodulating the received carrier signal to a base-band signal; and wherein the receiver (104,206) only detects changes in amplitude of the carrier signal and does not detect changes in phase or frequency variations of the carrier signal, and thus the receiver (104,206) operates asynchronously without a phase-lock loop, while eliminating any need for carrier signal re-generation. a transmitter (102,202) for modulating a carrier signal with an input data stream (112,214), wherein the modulated carrier signal is then fed to a transmitter antenna (114,216) comprising a differential dipole antenna that radiates the modulated carrier signal; and a receiver (104,206) for receiving the radiated carrier signal at a receiver antenna (116,218) comprising a differential dipole antenna and for converting the received carrier signal to a full swing digital signal as an output data stream (126,228); wherein the transmitter (102,202) and receiver (104,206) use asynchronous modulation and differential signaling for communicating between integrated circuit chips (102,104,202,206) or printed circuit boards (204,208); wherein the receiver (104,206) includes a self-mixer (120,222) comprising a differential-mutual-mixer that acts as an envelope detector and converts the received carrier signal by demodulating the received carrier signal to a base-band signal; and wherein the receiver (104,206) only detects changes in amplitude of the carrier signal and does not detect changes in phase or frequency variations of the carrier signal, and thus the receiver (104,206) operates asynchronously without a phase-lock loop, while eliminating any need for carrier signal re-generation.
A method for producing elastic laminates, comprising the steps of: - feeding a first continuous elastic film, - stretching the first continuous elastic film in a transverse direction, - applying the first continuous elastic film on an outer circumferential surface of a transfer wheel rotatable around a first axis of rotation, - holding the first continuous elastic film transversally stretched on said outer circumferential surface of the transfer wheel, - cutting longitudinally the transversally stretched first continuous elastic film on said outer circumferential surface of the transfer wheel so as to split the first continuous elastic film in at least two parallel continuous elastic films (17, 18), - holding said at least two parallel continuous elastic films (17, 18) in a transversally stretched state on said outer circumferential surface of the transfer wheel, - applying a first non-woven web on an outer cylindrical surface of an anvil wheel rotatable around a second axis of rotation parallel to the first axis of rotation, - transferring said at least two transversally stretched parallel continuous elastic films (17, 18) from the transfer wheel on the first non-woven web held on the outer cylindrical surface of the anvil wheel, - applying a second non-woven web on the anvil wheel above said at least two parallel continuous elastic film (17, 18), and - forming an elastic laminate by joining the first and second non-woven web (64, 66) through said at least two parallel continuous elastic films (17, 18). - feeding a first continuous elastic film, - stretching the first continuous elastic film in a transverse direction, - applying the first continuous elastic film on an outer circumferential surface of a transfer wheel rotatable around a first axis of rotation, - holding the first continuous elastic film transversally stretched on said outer circumferential surface of the transfer wheel, - cutting longitudinally the transversally stretched first continuous elastic film on said outer circumferential surface of the transfer wheel so as to split the first continuous elastic film in at least two parallel continuous elastic films (17, 18), - holding said at least two parallel continuous elastic films (17, 18) in a transversally stretched state on said outer circumferential surface of the transfer wheel, - applying a first non-woven web on an outer cylindrical surface of an anvil wheel rotatable around a second axis of rotation parallel to the first axis of rotation, - transferring said at least two transversally stretched parallel continuous elastic films (17, 18) from the transfer wheel on the first non-woven web held on the outer cylindrical surface of the anvil wheel, - applying a second non-woven web on the anvil wheel above said at least two parallel continuous elastic film (17, 18), and - forming an elastic laminate by joining the first and second non-woven web (64, 66) through said at least two parallel continuous elastic films (17, 18).
Device for assembling first and second modules of a furniture or construction element, said device comprising a female element and a male element intended to engage with the female element of the first module according to an embedded connection, said female element having a groove with an internal wall (4z, 4m, 4c, 4fs) comprising a plurality of bearing zones (4z, 4m, 4c, 4fs), said male element comprising a longitudinal body, comprising first and second portions and having first and second lateral walls (35, 35', 35") and upper and lower (37, 37') walls, the first portion of the body comprising a stop which projects and extends longitudinally along a longitudinal axis of the first lateral wall (35, 35'), said lower wall (37, 37') having two chamfers (36, 36', 36"), said device being characterized in that the shape and dimensions of the first portion of the body of the male element are determined to be complementary and adjusted to that of the groove of the female element of the first module, so that the stop, the chamfers (36, 36', 36") and the lower wall (37, 37') rest on one of the bearing zones of the internal wall (4z, 4m, 4c, 4fs) of said groove when the male element is fitted into the female element of said first module.
Use of a fatty acid composition as an attractant in a method of attracting Aleyrodidae (hereinafter whiteflies) wherein: (i) palmitic acid and linoleic acid are used in combination and the whiteflies are Trialeurodes vaporariorum; and/or (ii) octadecenoic acid and eicosatrienoic acid are used in combination and the whiteflies are Bemisia tabaci. (i) palmitic acid and linoleic acid are used in combination and the whiteflies are Trialeurodes vaporariorum; and/or (ii) octadecenoic acid and eicosatrienoic acid are used in combination and the whiteflies are Bemisia tabaci.
A method of manufacturing a component of an aircraft interior having antimicrobial properties, comprising: applying a reactive quaternary ammonium ion-based compound ("reactive quat") to an exposed aircraft interior surface of the component; and; reacting the applied reactive quat with the exposed aircraft interior surface; wherein the reactive quat comprises a reactive silane group, wherein the reactive quat is 1-tetradecanaminium, N,N-dimethyl-N-(3-(trimethoxysilyl)propyl)chloride, or wherein the reactive quat is 1-decanaminium, N-decyl-N-methyl-N-(3 (trimethoxysilyl)propyl)chloride, or wherein the reactive quat is 1-octadecanaminium, N,N-dimethyl-N-(3-(trihydroxysilyl)propyl)chloride; or wherein the reactive quat comprises benzophenone. applying a reactive quaternary ammonium ion-based compound ("reactive quat") to an exposed aircraft interior surface of the component; and; reacting the applied reactive quat with the exposed aircraft interior surface; wherein the reactive quat comprises a reactive silane group, wherein the reactive quat is 1-tetradecanaminium, N,N-dimethyl-N-(3-(trimethoxysilyl)propyl)chloride, or wherein the reactive quat is 1-decanaminium, N-decyl-N-methyl-N-(3 (trimethoxysilyl)propyl)chloride, or wherein the reactive quat is 1-octadecanaminium, N,N-dimethyl-N-(3-(trihydroxysilyl)propyl)chloride; or wherein the reactive quat comprises benzophenone.
Cleaning device for cleaning a winding material which has been coated in an immersion process in a coating fluid container comprising a coating fluid, with the cleaning device having at least one functional surface cleaning device, by means of which excess coating fluid can be cleaned off from a functional surface of the winding material directly with or as it emerges from the coating fluid, characterized in that the cleaning device has at least one nozzle which can be moved in and/or around the winding material, by means of which the material to be wound can be cleaned, at least in sections, by means of a pressurised, in particular gaseous, fluid, and in that the cleaning device has a drip-back protection device which can be arranged between the winding material dipped out of the coating fluid and a coating fluid surface of the coating fluid and by means of which a return dripping of excess coating fluid into the coating fluid container is prevented, wherein the return drip protection has a collecting section in which coating fluid collected by the return drip protection is collected.
A method at a location server, LS for limiting a quantity of signaling for a location session with a user equipment, UE, the method comprising: obtaining a coverage enhancement level for the UE; determining, based at least in part on the coverage enhancement level, a signaling quantity limit for the location session, wherein the signaling quantity limit indicates a message size limit for a positioning protocol; and sending (235, 340), to the UE, a first message for the positioning protocol, wherein the first message comprises the signaling quantity limit. obtaining a coverage enhancement level for the UE; determining, based at least in part on the coverage enhancement level, a signaling quantity limit for the location session, wherein the signaling quantity limit indicates a message size limit for a positioning protocol; and sending (235, 340), to the UE, a first message for the positioning protocol, wherein the first message comprises the signaling quantity limit.
Device for introducing elongated elements into the ground, comprising a leader, which is attachable to a transport device, a device for ramming the elongated element, which device is guided along the leader, which device is provided with holding elements for holding the elongated element, and a sound-damping device, which at least partially surrounds the device for ramming the elongated elements, characterized in that the sound-damping device is formed of a plurality of shell-shaped elements, which shell-shaped elements are constructed such that they are movable telescopically into and out of one another and the respective mutual travel of the shell-shaped elements is limited by stop means, in that the uppermost shell-shaped element in the extended state of the shell-shaped elements is fixed to the device for ramming the elongated elements and drive means are provided for moving the shell-shaped elements.
A color-forming composition containing a radical generator, a compound represented by the following formula and a binder polymer: wherein, in the formula, R 1 represents a group which reacts with a radical generated from the radical generator to be released and forms a dye after the release and has a structure represented by the following formula or: wherein, in the formulae and, R 2, R 3, R 5, R 6, R 7, R 8, R 10 and R 11 each independently represents a hydrogen atom, an alkyl group, OR 15, NR 16 R 17, SR 18 or a halogen atom, or R 5 and R 6, R 7 and R 8 or R 6 and R 7 may be connected with each other to form a condensed ring structure, R 4 and R 9 each independently represents any one of OR 15, NR 19 R 20 and SR 18, R 15 and R 18 each independently represents an alkyl group, R 16 and R 17 each independently represents a hydrogen atom or an alkyl group, or R 16 and R 17 may from a ring structure, R 19 and R 20 each independently represents a hydrogen atom, an alkyl group, an aryl group, an alkylcarbonyl group, an arylcarbonyl group, an aryloxycarbonyl group, an alkoxycarbonyl group, an aminocarbonyl group or an alkylsulfonyl group, or R 19 and R 20 may from a ring structure, and R 12, R 13 and R 14 each independently represents an aryl group, and T represents a nitrogen-containing hetero ring selected from heterocyclic groups represented by formulae (a) and (b) shown below: wherein in formulae (a) and (b), R 21, R 22, R 23, R 24, R 25 and R 26 each independently represents a hydrogen atom, an alkyl group, OR 15, NR 16 R 17, SR 18 or a halogen atom, or R 21 and R 22, R 22 and R 23, R 23 and R 24 or R 25 and R 26 may be connected with each other to form a condensed ring structure, R 15 and R 18 each independently represents an alkyl group, R 16 and R 17 each independently represents a hydrogen atom or an alkyl group, or R 16 and R 17 may from a ring structure, X represents a dialkylmethylene group, O, NR 27 or S, and R 27 represents a hydrogen atom, an alkyl group or an aryl group.
A method of cryopreserving tissue and/or cellular material comprising: (a) preparing tissue and/or cellular material for storage, wherein the tissue and/or cellular material comprises bone chips; (b) loading the tissue and/or cellular material into a pouch made of a sealable, flexible polymeric material open at one end and comprising a needle-free swabable connector that is attached to the pouch at the other end, wherein the pouch is made of fluorinated ethylene propylene; (c) sealing the open end of the pouch; (d) injecting a cryopreservation fluid into the pouch through the connector; (e) freezing the pouch until the temperature of the pouch reaches about -70°C or lower; and (f) storing the pouch at -70°C or lower. (a) preparing tissue and/or cellular material for storage, wherein the tissue and/or cellular material comprises bone chips; (b) loading the tissue and/or cellular material into a pouch made of a sealable, flexible polymeric material open at one end and comprising a needle-free swabable connector that is attached to the pouch at the other end, wherein the pouch is made of fluorinated ethylene propylene; (c) sealing the open end of the pouch; (d) injecting a cryopreservation fluid into the pouch through the connector; (e) freezing the pouch until the temperature of the pouch reaches about -70°C or lower; and (f) storing the pouch at -70°C or lower.
Non-therapeutic method for slowing down the intestinal transit of healthy mammals, by administering a food composition comprising galactofructose, said food composition being absorbed by the mammal in an amount corresponding to non-averaged daily doses of galactofructose comprised between 0.1 and 5g, advantageously between 0.1 and 2g, during at least 30 consecutive days, characterized in that the mammal, while not showing any signs of disease, shows a slighty too fast intestinal transit, the mammal having an intestinal transit time before galactofructose absorption, measured by scintigraphy, equal to a value ranging from 10 to 20 hours.
A lubricating oil or petroleum composition comprising an intramolecular crosslinked polymer, wherein said intramolecular crosslinked polymer comprises a single chain of a polymer or copolymer and a cross-linker, wherein the cross linker links between two different monomers of said single chain polymer or copolymer, and wherein said intramolecular crosslinked polymer comprises between 0.1 mol% and 30 mol% of crosslinkers.
A method for enabling to produce materials such as marble, travertine, granite, natural stone having natural cracks, cavities and regional different physical and chemical properties at desired standard sizes in blocks, including the steps of: - boring a plurality of holes in a block located in a mine; - applying reinforcement elements into the holes bored into the block by feeding said reinforcement elements into the holes by manual, dumping, infiltration or pressure application methods; and - separating the reinforced block from the mine using any method in the state of the art, wherein said reinforcement elements are made of a material selected from resin, epoxy or polyester, and wherein said boring comprises a boring method selected from impact and/or non-impact rotary, cutting, break-off, pneumatic, hydraulic or manual boring methods, wherein in the step of applying said reinforcement elements into the holes, said holes are covered by apparatuses functioning as single-way valve to prevent the reinforcement elements fed into the holes from getting out of the holes and to feed the reinforcing elements into the holes in a controlled way, and wherein the holes are so arranged as to form a reinforcement cage in the block, and wherein the holes bored from the outer edges of the block are interrelated. - boring a plurality of holes in a block located in a mine; - applying reinforcement elements into the holes bored into the block by feeding said reinforcement elements into the holes by manual, dumping, infiltration or pressure application methods; and - separating the reinforced block from the mine using any method in the state of the art,
An electrical power converter, comprising a transformer or autotransformer including a magnetic core and at least a primary winding and at least a secondary winding arranged around the magnetic core, characterised in that: said primary winding and/or said secondary winding have at least one full turn that includes at least one power switch and at least one capacitor connected in series and arranged respectively opposite to each other and facing opposite sides of the magnetic core, defining a cell that is divided in four segments, a first segment including said at least one switch, a second opposite segment including said at least one capacitor, and two other connecting segments (21, 22) providing electrical connection between the first segment and the second segment, and each of said two other connecting segments (21, 22) having opposite electrical polarity.
A positive-working photosensitive resin composition comprising an alkali soluble resin, a diazoquinone compound and a compound which contains two or more -CH 2 OH groups but not a phenolic hydroxyl group, wherein the compound has one or more aromatic rings to which the -CH 2 OH groups are directly bonded and wherein the alkali soluble resin is a polyamide resin having a structure represented by the following formula: wherein, X is an organic group of 2 to 4 valences; Y is an organic group of 2 to 6 valences; R 1 is a hydroxyl group or -O-R 3 each of which may be the same or different from each other wherein m is an integer of 0 to 2; R 2 is a hydroxyl group, a carboxyl group, -O-R 3 or -COO-R 3 each of which may be the same or different from each other wherein n is an integer of 0 to 4; R 3 is an organic group having 1 to 15 carbon atoms (If R 1 is not a hydroxyl group, at least one of R 2 is a carboxyl group. If R 2 is not a carboxyl group, at least one of R 1 is a hydroxyl group); Z is wherein each of R 4 and R 5 is a divalent organic group and each of R 6 and R 7 is a monovalent organic group each of which may be the same or different from each other; each of a and b represents a molar fraction; a + b = 100% by mole, a = 60 to 100% by mole and b = 0 to 40% by mole.