mhurhangee/ep-ind-claims huggingface dataset:
A laundry dryer comprising a body, a drum wherein the laundry to be dried is placed, an air circulation duct providing the delivery of the drying air onto the laundry in the drum, a heat exchanger that is disposed on the air circulation duct and that enables the temperature of the drying air to be changed, a tank wherein the condensed water is stored, at least one filter that holds the particles such as fiber, lint, etc. in the drying air, the filter surface being divided into more than one section (A, B, C), a water conduit that carries the water received from the tank to the filter, at least two pipes that separate into at least two branches to extend to each section (A, B, C) of the filter surface and that are disposed so as to spray water to these sections (A, B, C) and at least one outlet port that is disposed on each pipe and that is positioned to correspond to each section (A, B, C) of the filter so as to spray water to the filter surface characterized in that • at least one valve that is disposed on the water conduit and whereto the pipes are connected and • a control unit that controls the at least one valve and enables the valve to direct water to at least one of the pipes such that the water is sprayed to only some of the sections (A, B, C), instead of all the sections simultaneously. • at least one valve that is disposed on the water conduit and whereto the pipes are connected and • a control unit that controls the at least one valve and enables the valve to direct water to at least one of the pipes such that the water is sprayed to only some of the sections (A, B, C), instead of all the sections simultaneously.
A process for preparing a medium density fiberboard having a density of at least 500kg/m 3 or a high density fiberboard having a density of at least 800 kg/m 3 comprising pressing a composition comprising: - wood fibers; - a binder; - at least one sludge chosen from a primary pulp and paper sludge, secondary pulp and paper sludge, and a mixture thereof, wherein said sludge is present in said composition in an amount of at least 1 %, based on the total dry weight of the composition; and wherein said medium density fiberboard or said high density fiberboard has an internal bond strength of at least 0.35 kN/mm 2. - wood fibers; - a binder; - at least one sludge chosen from a primary pulp and paper sludge, secondary pulp and paper sludge, and a mixture thereof, wherein said sludge is present in said composition in an amount of at least 1 %, based on the total dry weight of the composition; and wherein said medium density fiberboard or said high density fiberboard has an internal bond strength of at least 0.35 kN/mm 2.
A lance system for introducing reducing agents into a boiler for selective noncatalytic reduction of nitrogen oxides in combustion gases, having an inner portion designed to be disposed within the boiler and an outer portion designed to be disposed outside the boiler, the lance system comprising an inner tube and an outer tube, wherein the inner tube is arranged within the outer tube at least along the inner portion of the lance system, whereby a intermediate space is formed between the outer wall of the inner tube and the inner wall of the outer tube, wherein along the inner tube a plurality of first outlet openings is arranged in the peripheral wall of the inner tube, and along the outer tube a plurality of second outlet openings is arranged in the peripheral wall of the outer tube, the first outlet openings of the inner tube open into the intermediate space, the internal space of the inner tube is in fluid communication with the intermediate space via the first outlet openings of the inner tube and the intermediate space is in fluid communication with the outside via the second outlet openings of the outer tube, characterized in that the axes of each first outlet opening intersect the inner wall of the outer tube at a closed wall section of the outer tube.
A first network apparatus used as a path computation client, PCC, for sharing network resources, said first network apparatus comprising: a transceiver unit configured to receive a first packet comprising an association object and path information from a second network apparatus used as a path computation element, PCE, wherein the association object comprises an association type indicating resource sharing and an association ID being an identifier of an association group; and a processing unit configured to: determine a first label switched path, LSP, according to the association ID in the association object; and create a second LSP according to the path information, wherein the second LSP shares network resources allocated to the first LSP with the first LSP; wherein the first LSP and the second LSP have different ingress nodes or egress nodes; and wherein the first LSP and the second LSP are per-domain LSP segments of a multi-domain end-to-end, E2E, path and the second LSP updates the first LSP during a re-computation of the E2E path. a transceiver unit configured to receive a first packet comprising an association object and path information from a second network apparatus used as a path computation element, PCE, wherein the association object comprises an association type indicating resource sharing and an association ID being an identifier of an association group; and a processing unit configured to: determine a first label switched path, LSP, according to the association ID in the association object; and create a second LSP according to the path information, wherein the second LSP shares network resources allocated to the first LSP with the first LSP; determine a first label switched path, LSP, according to the association ID in the association object; and create a second LSP according to the path information, wherein the second LSP shares network resources allocated to the first LSP with the first LSP; wherein the first LSP and the second LSP have different ingress nodes or egress nodes; and wherein the first LSP and the second LSP are per-domain LSP segments of a multi-domain end-to-end, E2E, path and the second LSP updates the first LSP during a re-computation of the E2E path.
A tire that includes a pair of bead cores, and a carcass that extends between the pair of bead cores, wherein the carcass includes a carcass main portion that extends between the pair of bead cores, and carcass fold-back portions that are folded back to outsides, along a tread width direction (twd), of the pair of bead cores, respectively, and the carcass fold-back portions are wound around the bead cores, respectively, the tire comprises: a hard bead filler that is arranged on an outer side of the carcass in the tread width direction (twd), wherein the hard bead filler extends, along a tire radial direction (trd), from an outer side of the bead core at least to a center of the bead core, and a thickness (t) of the hard bead filler along the tread width direction (twd) is not shorter than 0.5mm on a straight line passing over the center of the bead core in the tread width direction (twd), characterised by further comprising: a soft bead filler that is softer than the hard bead filler, wherein the carcass fold-back portion includes a carcass outer-side end that is an outer-side end in the tire radial direction (trd), and the soft bead filler locates between the carcass outer-side end and the hard bead filler along the tire radial direction (trd). a hard bead filler that is arranged on an outer side of the carcass in the tread width direction (twd), wherein the hard bead filler extends, along a tire radial direction (trd), from an outer side of the bead core at least to a center of the bead core, and a thickness (t) of the hard bead filler along the tread width direction (twd) is not shorter than 0.5mm on a straight line passing over the center of the bead core in the tread width direction (twd), characterised by further comprising: a soft bead filler that is softer than the hard bead filler, wherein the carcass fold-back portion includes a carcass outer-side end that is an outer-side end in the tire radial direction (trd), and the soft bead filler locates between the carcass outer-side end and the hard bead filler along the tire radial direction (trd). a soft bead filler that is softer than the hard bead filler, wherein the carcass fold-back portion includes a carcass outer-side end that is an outer-side end in the tire radial direction (trd), and the soft bead filler locates between the carcass outer-side end and the hard bead filler along the tire radial direction (trd).
A liquid capsaicin injectable formulation for use in treating acral lick granuloma in a canine, wherein the liquid capsaicin injectable formulation is for administering to the canine by multiple subcutaneous injections to tissue proximal to the lower boundary of the granuloma, wherein, after the first subcutaneous injection of the formulation to tissue proximal to the lower boundary of the granuloma, any subsequent subcutaneous injection of the formulation into tissue proximal to the lower boundary of the granuloma is performed at a location laterally distal to any prior injection of the formulation to tissue proximal to the lower boundary of the granuloma, to thereby disperse capsaicin throughout the area under the acral lick granuloma in proximity to the boundary between healthy tissue and the granuloma; wherein the administering delivers capsaicin in an amount ranging from about 1.2 μg to about 1.8 μg of capsaicin per square millimeter of topical surface area of the acral lick granuloma; the liquid capsaicin injectable formulation contains capsaicin in an amount ranging from about 0.3 mg/mL to about 0.5 mg/mL; and the capsaicin comprises greater than about 95% trans-capsaicin.
An apparatus for performing a plasma chemical vapour deposition process, comprising a mainly cylindrical resonator being provided with an outer cylindrical wall enclosing a resonant cavity extending in a circumferential direction (Ci) around a cylindrical axis, the resonator further being provided with side wall portions bounding the resonant cavity in the cylindrical direction of the resonator, and with a slit configuration extending in the circumferential direction (Ci) around the cylindrical axis providing access from the resonant cavity radially inwardly, characterised in that the slit configuration includes slit sections that are mutually offset in the cylindrical direction, and the slit sections are staggered forming the slit configuration that extends in the circumferential direction (Ci) as a full circle.
A hydrogenation catalyst consisting essentially of: from 20 to 50 wt% of copper, from 1 to 15 wt% of zinc, optionally an auxiliary catalyst component selected from the group consisting of magnesium, strontium, barium and aluminum, and calcium silicate wherein the molar ratio of calcium oxide to silicon oxide in the calcium silicate is from 0.1 to 0.7, said hydrogenation catalyst having a BET specific surface area of from 3 to 30 m 2 /g. from 20 to 50 wt% of copper, from 1 to 15 wt% of zinc, optionally an auxiliary catalyst component selected from the group consisting of magnesium, strontium, barium and aluminum, and calcium silicate wherein the molar ratio of calcium oxide to silicon oxide in the calcium silicate is from 0.1 to 0.7, said hydrogenation catalyst having a BET specific surface area of from 3 to 30 m 2 /g.
A gas turbine plant comprising: a gas turbine that combusts fuel, is driven by combustion gas generated through combustion of the fuel, and exhausts the combustion gas as exhaust gas; a heating device (60, 60a, 60d, 60g) that heats ammonia and thermally decomposes the ammonia to convert the ammonia into decomposition gas including hydrogen gas and nitrogen gas; and a decomposition gas line that sends the decomposition gas flowing out of the heating device (60, 60a, 60d, 60g) to the gas turbine; characterized in that the gas turbine plant further comprises a decomposition gas compressor that is provided on the decomposition gas line and increases a pressure of the decomposition gas flowing out of the heating device (60, 60a, 60d, 60g) to a pressure equal to or higher than a feed pressure at which the decomposition gas is allowed to be fed to the gas turbine, wherein the decomposition gas of which the pressure has been increased by the decomposition gas compressor is supplied to the gas turbine as at least a part of the fuel. a gas turbine that combusts fuel, is driven by combustion gas generated through combustion of the fuel, and exhausts the combustion gas as exhaust gas; a heating device (60, 60a, 60d, 60g) that heats ammonia and thermally decomposes the ammonia to convert the ammonia into decomposition gas including hydrogen gas and nitrogen gas; and a decomposition gas line that sends the decomposition gas flowing out of the heating device (60, 60a, 60d, 60g) to the gas turbine; characterized in that the gas turbine plant further comprises a decomposition gas compressor that is provided on the decomposition gas line and increases a pressure of the decomposition gas flowing out of the heating device (60, 60a, 60d, 60g) to a pressure equal to or higher than a feed pressure at which the decomposition gas is allowed to be fed to the gas turbine, wherein the decomposition gas of which the pressure has been increased by the decomposition gas compressor is supplied to the gas turbine as at least a part of the fuel.
A computer program product for sending encrypted data to a service provider, comprising: a non-transitory computer readable storage medium, said non-transitory computer readable storage medium comprising computer readable program code embodied therewith, said computer readable program code comprising program instructions that, when executed, causes a processor to: exchange an encryption key between an entity and the service provider without retaining said encryption key and while hiding an identity of said entity from said service provider; and forward encrypted data based on said encryption key to said service provider from said entity while hiding said identity of said entity from said service provider. exchange an encryption key between an entity and the service provider without retaining said encryption key and while hiding an identity of said entity from said service provider; and forward encrypted data based on said encryption key to said service provider from said entity while hiding said identity of said entity from said service provider.
A yarn winder configured to wind yarns onto bobbins attached to a winding shaft while traversing the yarns about fulcrum guides that are aligned in the axial direction of the winding shaft, the fulcrum guides being rollers each having a central axis, having outer circumferential surfaces on which the yarns are placed, and being arranged not to rotate about the central axis during yarn winding, the yarn winder comprising: a movement mechanism configured to move the fulcrum guides between winding positions where the yarn winding is performed and yarn threading positions where yarn threading is performed; and a rotation mechanism (30, 40, 50) configured to automatically rotate at least one of the fulcrum guides about the central axis, when the movement mechanism moves the fulcrum guides between the winding positions and the yarn threading positions. the fulcrum guides being rollers each having a central axis, having outer circumferential surfaces on which the yarns are placed, and being arranged not to rotate about the central axis during yarn winding, the yarn winder comprising: a movement mechanism configured to move the fulcrum guides between winding positions where the yarn winding is performed and yarn threading positions where yarn threading is performed; and a rotation mechanism (30, 40, 50) configured to automatically rotate at least one of the fulcrum guides about the central axis, when the movement mechanism moves the fulcrum guides between the winding positions and the yarn threading positions.
Slide bearing composite material with a metallic supporting layer, optionally with a porous backing layer applied thereon, and with a sliding layer material, introduced into the pores of the backing layer or applied to the metallic supporting layer, with a polymeric plastic base with fillers improving the tribological properties, wherein the sliding layer material comprises PVDF as polymeric plastic base and contains PTFE, characterised in that the sliding layer material comprises 65 - 90 vol% PVDF as polymeric plastic base and also comprises 5 - 30 vol% PTFE and also comprises 5 - 25 vol% of a filler in compounded form, wherein the polymeric plastic base is matrix-forming, and that the filler in compounded form is present in particulate form and is incorporated in the matrix-forming polymeric plastic base, and that the filler in compounded form comprises a thermoplastic and further tribologically active substances, wherein the content of the thermoplastic in the compounded form is 40-95 vol.% and the content of the further tribologically active substances in the compounded form is, accordingly, 60-5 vol%, and that the filler in compounded form comprises, as thermoplastic, individually or in combination with several polyaryletherketones (PAEK), in particular polyetheretherketone (PEEK), polyamides, polyester, polyethersulphone, polyphenylene sulphide, polybutylene terephthalate.
Header box for a heat exchanger, said header box extends along a main axis, said header box comprising a first manifold and a second manifold, each manifold (10,20) comprises parts, parts being at least a header plate (11,21), a cover (13,14) and a distribution plate (12,22), said distribution plate (12,22) being localized between the header plate (11,21) and the cover (13,14), wherein at least a header plate (11,21) comprises linking elements configured to grab the corresponding cover (13,14), said linking elements extend from two longitudinal sides of said header plate (11,21) to the corresponding cover (13,14), said longitudinal sides extending along the main axis of the header box, characterized in that one of the parts of the first manifold comprises a mechanical link with one of the parts of the second manifold, while the two other parts of the first manifold are separated from the two other parts of the second manifold.
A melt polymerization process comprising: melt polymerizing reactants in at least two polymerization units, in the presence of a first catalyst composition and a second catalyst composition to form polycarbonate, wherein the first catalyst composition and the second catalyst composition comprise an alpha transesterification catalyst comprising a source of alkali and/or alkaline earth ions, wherein the first catalyst composition comprises more alpha transesterification catalyst than the second catalyst composition based on the relative amount of dihydroxy compound present at the respective addition locations; wherein the melt polymerizing comprises: adding the first catalyst composition to the polycarbonate, adding a first quencher composition to the polycarbonate downstream of adding the first catalyst composition, wherein the first quencher composition reduces the activity of the first catalyst composition; adding the second catalyst composition to the polycarbonate downstream of adding the first quencher composition; optionally filtering the polycarbonate; and directing the polycarbonate to an extruder. melt polymerizing reactants in at least two polymerization units, in the presence of a first catalyst composition and a second catalyst composition to form polycarbonate, wherein the first catalyst composition and the second catalyst composition comprise an alpha transesterification catalyst comprising a source of alkali and/or alkaline earth ions, wherein the first catalyst composition comprises more alpha transesterification catalyst than the second catalyst composition based on the relative amount of dihydroxy compound present at the respective addition locations; wherein the melt polymerizing comprises: adding the first catalyst composition to the polycarbonate, adding a first quencher composition to the polycarbonate downstream of adding the first catalyst composition, wherein the first quencher composition reduces the activity of the first catalyst composition; adding the second catalyst composition to the polycarbonate downstream of adding the first quencher composition; adding the first catalyst composition to the polycarbonate, adding a first quencher composition to the polycarbonate downstream of adding the first catalyst composition, wherein the first quencher composition reduces the activity of the first catalyst composition; adding the second catalyst composition to the polycarbonate downstream of adding the first quencher composition; optionally filtering the polycarbonate; and directing the polycarbonate to an extruder.
A dishwasher comprising a body; a washing tub which is disposed in the body and wherein the washing process is performed; at least one rack which is disposed in the washing tub and whereon the kitchen items are placed; at least one spraying member which sprays water onto the rack; and a plurality of horizontal wires which form the base of the rack, a plurality of placement members which can be attached onto the horizontal wires so as to slide thereon and which have inclined vertical wires suitable for placing plates thereon; a spacer which is provided between the placement members; and a movement mechanism which enables the length of the spacer to be changed with the placement member sliding on the horizontal wires wherein the spacer is provided on the placement member, characterized in that the placement members are attached to the each other via the spacer so as to slidably move one over the other.
A bus bar, wherein the bus bar comprises a first surface and a second surface, wherein the bus bar comprises a metal, wherein the bus bar comprises a first welding bump at a first position of the bus bar and a second welding bump at a second position of the bus bar, characterized in that the first welding bump protrudes above the first surface and the second welding bump protrudes above the second surface, wherein the first position and the second position are directly adjacent to each other, wherein a crack is arranged in the bus bar between the first position and the second position.
An automatic laser cutting method, comprising blowing a gas flow to a cutting location in order to sweep slag and gases produced by the cutting, the blowing being performed through pulses, characterised in that it consists in continuously measuring a laser light backscatter intensity and modifying either a frequency, a pressure or both a frequency and a pressure of the pulses so as to keep said intensity to a minimum.
A method of preparing a liposomal based drug formulation comprising mixing a lipid solution comprising a lipid dissolved in an organic solvent with an aqueous aminoglycoside solution to form an aminoglycoside coacervate, wherein the ratio of lipid solution flow rate to the aqueous aminoglycoside solution flow rate is 2:3, wherein the lipid is mixed with the aminoglycoside coacervate and the aminoglycoside coacervate initiates lipid bilayer formation around the aminoglycoside coacervate and wherein the lipid solution and aqueous aminoglycoside solution are mixed from two separate streams in an in-line fashion, wherein the concentration of the aminoglycoside inside the liposome is higher than the external aminoglycoside concentration.