mhurhangee/ep-ind-claims huggingface dataset:
An electronic cigarette comprising a generally cylindrical housing with a proximal mouth end and a distal end, and within the housing: a vaporiser to produce vapour to be delivered to the mouth end, a battery, and sensor circuitry to detect a user drawing on the mouth end and connect the battery to power the vaporiser to produce vapour, the vaporiser comprising: a tube having inlet and outlet ends and extending longitudinally of the housing, supports at opposite ends of the tube for directing airflow into and out of the tube from the inlet to the outlet, a porous matrix (18, 19) containing a vaporisable liquid extending around the tube, wicking fibres extending through side openings (14a, 14b) in the tube and configured to wick the vaporisable liquid from the porous matrix into the tube, and an electrical heater coil in the tube configured to be powered by the battery to vaporise liquid on the wicking fibres in the tube, so that vapour is supplied along the tube to the outlet end when the user draws thereon, characterized in that the wicking fibres are wrapped around the outer surface of the tube so as to contact and receive the vaporisable liquid, by capilliary action from the matrix. a vaporiser to produce vapour to be delivered to the mouth end, a battery, and sensor circuitry to detect a user drawing on the mouth end and connect the battery to power the vaporiser to produce vapour, the vaporiser comprising: a tube having inlet and outlet ends and extending longitudinally of the housing, supports at opposite ends of the tube for directing airflow into and out of the tube from the inlet to the outlet, a porous matrix (18, 19) containing a vaporisable liquid extending around the tube, wicking fibres extending through side openings (14a, 14b) in the tube and configured to wick the vaporisable liquid from the porous matrix into the tube, and an electrical heater coil in the tube configured to be powered by the battery to vaporise liquid on the wicking fibres in the tube, so that vapour is supplied along the tube to the outlet end when the user draws thereon, characterized in that the wicking fibres are wrapped around the outer surface of the tube so as to contact and receive the vaporisable liquid, by capilliary action from the matrix. a tube having inlet and outlet ends and extending longitudinally of the housing, supports at opposite ends of the tube for directing airflow into and out of the tube from the inlet to the outlet, a porous matrix (18, 19) containing a vaporisable liquid extending around the tube, wicking fibres extending through side openings (14a, 14b) in the tube and configured to wick the vaporisable liquid from the porous matrix into the tube, and an electrical heater coil in the tube configured to be powered by the battery to vaporise liquid on the wicking fibres in the tube, so that vapour is supplied along the tube to the outlet end when the user draws thereon, characterized in that the wicking fibres are wrapped around the outer surface of the tube so as to contact and receive the vaporisable liquid, by capilliary action from the matrix.
Method for plasma perforation of tipping paper, low-temperature plasma being generated on the surface of the tipping paper by an ionizable gas mixture being ionized for a short time by an energy source that is as punctiform as possible, characterized in that a pressurized inert gas or a gas mixture having a high concentration of inert gas is placed annularly around the energy source in the direction of the tipping paper, as a result of which the ionizable gas mixture is localized to a very small surface region of the tipping paper in front of the energy source by this region being annularly surrounded by a gas mixture having a higher concentration of inert gas.
System for loading and unloading in port operations and supporting hatch covers of holds of maritime vessels, WHEREIN it comprises: a) a crane for loading and unloading of maritime operations, wherein the crane has horizontal lateral beams one on each side of a body of the crane and two legs with angled shaped arch, each formed by two verticals profiles and a horizontal profile base; and b) a base located in the body of the crane to hold and stack hatch covers, characterized in that the base is an inner or an outer cover support (16, 13), wherein the inner cover support is installed on an inside of the body of the crane and is formed by supports attached to the lateral horizontal beams, the supports being of an adequate and sufficient size to support the weight of the hatch covers, or the outer cover support is installed on an outside of the body of the crane and is formed by supports attached to the vertical profiles of the legs of the crane; and further comprising some higher tensors attached to a top of the crane, wherein the supports are of an adequate and sufficient size to support the weight of the hatch covers. a) a crane for loading and unloading of maritime operations, wherein the crane has horizontal lateral beams one on each side of a body of the crane and two legs with angled shaped arch, each formed by two verticals profiles and a horizontal profile base; and b) a base located in the body of the crane to hold and stack hatch covers,
Distribution pipe for an agricultural field spraying device with branch pieces which have branch pipes arranged at uniform distances and on which distribution elements are arranged, wherein the distribution pipe is connectable at least to a liquid supply pipe, wherein the branch pieces are connected to the distribution pipe via connecting elements, wherein the liquid cross section of the distribution pipe decreases continuously and/or in a stepwise manner in the direction of the side facing away from the liquid pipe, characterized in that the cross section of the passage pipe of the branch pieces is at least partially larger than the cross section of the distribution pipes between the branch pieces, in that the centre points (16, 17) of the liquid cross sections of the distribution pipes and the coupling pieces of the distribution pipes to the branch pipes are arranged offset with respect to one another, specifically in such a manner that the lower pipe surface of the distribution pipe lies at the same height as the lower pipe surface of the branch pipe.
A method of controlling mercury re-emission from a combustion process, the method comprising: (a) measuring either ionic mercury concentration, oxidation-reduction potential, and/or sulfide concentration within a scrubber liquor of a wet flue gas desulpherizer (wFGD); (b) correlating the ionic mercury concentration, ORP, and/or sulfide concentration with an amount of mercury re-emission additive required in the scrubber liquor to reduce and/or prevent mercury re-emission to a selected level; and (c) adjusting the rate of addition of mercury re-emission additive into the scrubber liquor to attain the selected level of mercury re-emission, wherein the mercury re-emission control additive is a polydithiocarbamic compound. (a) measuring either ionic mercury concentration, oxidation-reduction potential, and/or sulfide concentration within a scrubber liquor of a wet flue gas desulpherizer (wFGD); (b) correlating the ionic mercury concentration, ORP, and/or sulfide concentration with an amount of mercury re-emission additive required in the scrubber liquor to reduce and/or prevent mercury re-emission to a selected level; and (c) adjusting the rate of addition of mercury re-emission additive into the scrubber liquor to attain the selected level of mercury re-emission,
A target obtained by processing an oxide sintered body by surface grinding to obtain predetermined dimension and adhering it to a backing plate, wherein the oxide sintered body has zinc oxide as a main component, comprises zinc oxide and magnesium, the specific resistance is equal to or lower than 50 kΩcm, and the magnesium oxide phase is not contained, characterized in that the content of magnesium is from 0.05 to 0.18 as atom number ratio of Mg/(Zn+Mg).
Method for labeling antibodies and/or fragments thereof, comprising a) providing an IgG binding protein, which comprises α-helix structures, with a photoactivatable group and at least one label; b) forming a mixture of said IgG binding protein and the antibodies and/or fragments to be labeled; and c) UV illuminating said mixture for site-specific labeling of said antibodies and/or fragments thereof, wherein the IgG binding protein is the Z domain comprising SEQ ID NO 1 in which Phe in position 5 has been exchanged for BPA (benzoylphenylalanine).
An abuse deterrent pharmaceutical composition comprising: a. a pharmaceutically active ingredient; b. an acid soluble ingredient comprising a cationic copolymer based on dimethylaminoethyl methacrylate, butyl methacrylate, and methyl methacrylate; and c. a buffering ingredient comprising calcium carbonate, sodium bicarbonate, magnesium oxide, tribasic sodium phosphate, or combinations thereof; wherein the acid soluble ingredient and the buffering ingredient retard release of the pharmaceutically active ingredient when the composition is ingested in excess of an intended dosage, wherein the buffering ingredient is present in an amount of 45 wt% to 95 wt% of the pharmaceutical composition, and wherein the pharmaceutically active ingredient is contained within a matrix of the acid soluble ingredient. a. a pharmaceutically active ingredient; b. an acid soluble ingredient comprising a cationic copolymer based on dimethylaminoethyl methacrylate, butyl methacrylate, and methyl methacrylate; and c. a buffering ingredient comprising calcium carbonate, sodium bicarbonate, magnesium oxide, tribasic sodium phosphate, or combinations thereof;
A sanitary fitting for mixing cold water and hot water to form mixed water having a desired mixed water temperature, comprising a fitting housing, an outlet and a water guideway arranged at least partially in the fitting housing or the outlet as a separate component, wherein the water guideway has a first channel for the mixed water and a second channel for a secondary fluid, wherein the second channel is at least partially configured as a connection nipple integrally formed with the water guideway, wherein the second channel opens into a hose of the sanitary fitting, and the secondary fluid can be guided by means of the second hose through the outlet to an discharge opening of the sanitary fitting, wherein the hose is secured to the connection nipple, characterized in that the sanitary fitting has a cartridge receptacle for receiving a mixing cartridge, wherein the mixed water can be supplied from the mixing cartridge via the cartridge receptacle to the first channel of the water guideway.
A method for smoothing a surface of an object, the method comprising: receiving the object in a chamber; and being characterized by: generating a mist by a nebulizer assembly from a liquid held in a reservoir into the chamber; and surrounding the object with the mist; wherein the nebulizer assembly comprises a mesh, a vibrating element, and a wick. generating a mist by a nebulizer assembly from a liquid held in a reservoir into the chamber; and surrounding the object with the mist; wherein the nebulizer assembly comprises a mesh, a vibrating element, and a wick.
An antibody or fragment thereof that specifically binds to a HER3 receptor, such that the antibody or fragment thereof binds to a conformational epitope comprising amino acid residues within domain 2 and domain 4 of the HER3 receptor and blocks both ligand-dependent and ligand-independent signal transduction for use in the treatment of benign prostate hyperplasia.
A solar cell module comprising: a substrate; a photoelectric conversion layer; a first sealing layer located between the substrate and the photoelectric conversion layer; a second sealing layer located between the substrate and the first sealing layer; and an end face sealing structure that covers at least part of an edge portion of the substrate and at least part of an edge portion of the second sealing layer, wherein the photoelectric conversion layer contains an organic material and convers light to energy, wherein the second sealing layer has a lower water vapor permeability than the first sealing layer, and wherein at least part of the first sealing layer is spaced apart from the end face sealing structure. a substrate; a photoelectric conversion layer; a first sealing layer located between the substrate and the photoelectric conversion layer; a second sealing layer located between the substrate and the first sealing layer; and an end face sealing structure that covers at least part of an edge portion of the substrate and at least part of an edge portion of the second sealing layer, wherein the photoelectric conversion layer contains an organic material and convers light to energy, wherein the second sealing layer has a lower water vapor permeability than the first sealing layer, and wherein at least part of the first sealing layer is spaced apart from the end face sealing structure.
Material comprising: a. A ceramic component is selected from Li 2 O:Al 2 O 3:SiO 2 or MgO:Al 2 O 3:SiO 2, and b. carbon nanofilaments, wherein said material is characterized in that it has a coefficient of thermal expansion between -6x10 -6 °C -1 and 6.01x10 -6 °C -1. a. A ceramic component is selected from Li 2 O:Al 2 O 3:SiO 2 or MgO:Al 2 O 3:SiO 2, and b. carbon nanofilaments,
A device (120, 702) for occluding an aperture (44, 116, 208, 408, 1012) in the wall of an annulus fibrosus (42, 206, 402, 612, 712, 906, 1006) and preventing the migration of nucleus pulposus therethrough, the device (120, 702) being expandable, and the device (120, 702) having a first collapsed configuration dimensioned to pass through said aperture (44, 116, 208, 408, 1012); a second expanded configuration having at least one dimension at least as large as said aperture (44, 116, 208, 408, 1012) and having at least one dimension larger than a corresponding dimension in said first collapsed configuration; characterized by, the device further comprising: at least one anchoring band (144, 709, 709', 709"), each anchoring band having two barbed elements (134, 136, 709") that are connected by means of a connecting element (144, 709'), such as a suture or a band; and a fixation feature mounted on the device (120, 702) such that the device (120, 702) may be captured on a delivery tool (122, 704), an attachment element (142, 145, 710, 714), for example, a tether, a suture, a cinch line, or a staple, for attaching the at least one anchoring band (144, 709, 709', 709") to the device (120, 702). at least one anchoring band (144, 709, 709', 709"), each anchoring band having two barbed elements (134, 136, 709") that are connected by means of a connecting element (144, 709'), such as a suture or a band; and a fixation feature mounted on the device (120, 702) such that the device (120, 702) may be captured on a delivery tool (122, 704), an attachment element (142, 145, 710, 714), for example, a tether, a suture, a cinch line, or a staple, for attaching the at least one anchoring band (144, 709, 709', 709") to the device (120, 702).
A method for signal processing, the method comprising: frequency shifting, by a first pair of mixers and subsequently by a plurality of second pair of mixers, a received signal by a different amount to generate each of a plurality of repeated signals, wherein each of said plurality of repeated signals comprises one or more signal components; and controlling a directivity of each of said repeated signals based upon controlling a phase and/or amplitude of each of said one or more signal components while the said one or more signal components are transmitted via a corresponding plurality of antenna elements; wherein generating each of said plurality of repeated signals comprises: quadrature down-converting said received signal by mixing, by said first pair of mixers, said received signal with a first of a plurality of phase-quadrature local oscillator signal pairs; up-converting said down-converted signal by mixing, by each second pair of mixers of said plurality of said second pair of mixers, said down-converted signal with each phase-quadrature local oscillator signal pair of said plurality of phase-quadrature local oscillator signal pairs; and adding or subtracting an in-phase portion of said up-converted signal and a quadrature-phase portion of said up-converted signal. frequency shifting, by a first pair of mixers and subsequently by a plurality of second pair of mixers, a received signal by a different amount to generate each of a plurality of repeated signals, wherein each of said plurality of repeated signals comprises one or more signal components; and controlling a directivity of each of said repeated signals based upon controlling a phase and/or amplitude of each of said one or more signal components while the said one or more signal components are transmitted via a corresponding plurality of antenna elements; wherein generating each of said plurality of repeated signals comprises: quadrature down-converting said received signal by mixing, by said first pair of mixers, said received signal with a first of a plurality of phase-quadrature local oscillator signal pairs; up-converting said down-converted signal by mixing, by each second pair of mixers of said plurality of said second pair of mixers, said down-converted signal with each phase-quadrature local oscillator signal pair of said plurality of phase-quadrature local oscillator signal pairs; and adding or subtracting an in-phase portion of said up-converted signal and a quadrature-phase portion of said up-converted signal. quadrature down-converting said received signal by mixing, by said first pair of mixers, said received signal with a first of a plurality of phase-quadrature local oscillator signal pairs; up-converting said down-converted signal by mixing, by each second pair of mixers of said plurality of said second pair of mixers, said down-converted signal with each phase-quadrature local oscillator signal pair of said plurality of phase-quadrature local oscillator signal pairs; and adding or subtracting an in-phase portion of said up-converted signal and a quadrature-phase portion of said up-converted signal.
A handle device for a vehicle configured to operate a door lock device via a cable device (60, 70), the handle device comprising: an operation member (45, 50) connected to the cable device (60, 70); and a handle case housing the operation member (45, 50), wherein the handle case comprises: a cable fixing base in which the cable device (60, 70) is arranged; a cap part configured to fix the cable device (60, 70) to the cable fixing base; and a hinge portion provided between the cable fixing base and the cap part, and rotating the cap part from an open position at which the cap part is open with respect to the cable fixing base to a fixing position at which the cap part faces the cable fixing base and clamps the cable device (60, 70) between the cap part and the cable fixing base, characterized in that the cap part includes a movable guide piece erected on the cap part, wherein the cable fixing base includes a fixed guide piece erected on the cable fixing base, and wherein the fixed guide piece is erected in front of the movable guide piece with the hinge portion therebetween, and restricts a movable range of the movable guide piece, thereby guiding a rotational movement of the cap part from the open position to the fixing position. an operation member (45, 50) connected to the cable device (60, 70); and a handle case housing the operation member (45, 50), wherein the handle case comprises: a cable fixing base in which the cable device (60, 70) is arranged; a cap part configured to fix the cable device (60, 70) to the cable fixing base; and a hinge portion provided between the cable fixing base and the cap part, and rotating the cap part from an open position at which the cap part is open with respect to the cable fixing base to a fixing position at which the cap part faces the cable fixing base and clamps the cable device (60, 70) between the cap part and the cable fixing base, a cable fixing base in which the cable device (60, 70) is arranged; a cap part configured to fix the cable device (60, 70) to the cable fixing base; and a hinge portion provided between the cable fixing base and the cap part, and rotating the cap part from an open position at which the cap part is open with respect to the cable fixing base to a fixing position at which the cap part faces the cable fixing base and clamps the cable device (60, 70) between the cap part and the cable fixing base, characterized in that the cap part includes a movable guide piece erected on the cap part, wherein the cable fixing base includes a fixed guide piece erected on the cable fixing base, and wherein the fixed guide piece is erected in front of the movable guide piece with the hinge portion therebetween, and restricts a movable range of the movable guide piece, thereby guiding a rotational movement of the cap part from the open position to the fixing position.
A shoe upper (12, 112, 212) comprising: an eyestay (26, 126); a footbed coupling portion (16, 116); an outer layer (20, 120, 220) having an inner surface and an outer surface; and a floating textile layer (22, 122, 222) having an inner surface and an outer surface, the outer surface of the floating textile layer (22, 122, 222) being fixedly coupled with the inner surface of the outer layer (20, 120, 220) at the eyestay (26, 126) and at the footbed coupling portion (16, 116), wherein an apparent elongation of the floating textile layer (22, 122, 222) is less than an apparent elongation of the outer layer (20, 120, 220) in response to an equal tensile force applied to each of the floating textile layer (22, 122, 222) and the outer layer (20, 120, 220) along a same axis of orientation, characterized in that the floating textile layer (22, 122, 222) comprises a quad-axial material, having a low apparent elongation in the direction of each of four axes, or a tri-axial material, having a low apparent elongation in the direction of each of three axes, and that the floating textile layer (22, 122, 222) is constructed to orient one of the directions of low apparent elongation such that it extends between the eyestay (26, 126) and the footbed coupling portion (16, 116).