mhurhangee/ep-ind-claims huggingface dataset:
Method for recovering plastics from a mixture of at least two polymers, wherein one polymer is contained with a share of 1% to 99% by weight, comprising: (a) carrying out a first density separation at a density in the range from 1.14 to 1.18 g/cm 3, to give a first light fraction, which contains polyolefins and styrene-based polymers, and a first heavy fraction; (b) supplying the first light fraction to a second density separation at a density in the range from 1.00 to 1.03 g/cm 3, to give a second light fraction, which contains unfilled polyolefins, and a second heavy fraction, which contains styrene-based polymers and possibly filled polyolefins; (c) supplying the first heavy fraction to a third density separation at a density in the range from 1.18 to 1.24 g/cm 3, wherein the first heavy fraction is separated into a third light fraction, which contains polyamides, polycarbonates and methacrylate-based polymers, and a third heavy fraction containing polyoxymethylene, highly filled polymers and halogen-containing polymers; (d) separating all the fractions into fractions substantially containing single-grade polymers, wherein, before the third density separation, metal-containing components (143, 147) are removed from the first heavy fraction. (a) carrying out a first density separation at a density in the range from 1.14 to 1.18 g/cm 3, to give a first light fraction, which contains polyolefins and styrene-based polymers, and a first heavy fraction; (b) supplying the first light fraction to a second density separation at a density in the range from 1.00 to 1.03 g/cm 3, to give a second light fraction, which contains unfilled polyolefins, and a second heavy fraction, which contains styrene-based polymers and possibly filled polyolefins; (c) supplying the first heavy fraction to a third density separation at a density in the range from 1.18 to 1.24 g/cm 3, wherein the first heavy fraction is separated into a third light fraction, which contains polyamides, polycarbonates and methacrylate-based polymers, and a third heavy fraction containing polyoxymethylene, highly filled polymers and halogen-containing polymers; (d) separating all the fractions into fractions substantially containing single-grade polymers,
Vehicle arrangement for moving at least one vehicle in a direction of travel (7.1, 7.2) along a route with at least one contact line system and with at least one vehicle, wherein the contact line system is embodied to supply energy from the at least one vehicle moving in a direction of travel (7.1, 7.2) relative to the contact line system and at least one first contact line portion, at least one second contact line portion, which is arranged in the direction of travel behind the first contact line portion, at least one energy source, which is connected to the first contact line portion and the second contact line portion, and at least one electrical component, which at least restricts the current flow in a reverse direction from the second contact line portion to the energy source and permits the same contrary to the reverse direction, wherein the first contact line portion is arranged at a first distance from the second contact line portion and the second contact line portion is arranged at a second distance from the contact line portion which follows in the direction of travel, wherein the second distance is greater than the first distance, characterised in that the vehicle has at least one energy storage device and, that the vehicle is embodied, in the region of the second contact line portion, to raise the voltage in the vehicle by way of the energy storage unit, so that no current flows between the vehicle and contact line system and is embodied to be driveable at least temporarily without connection to the contact line device along the route.
A semiconductor device comprising: a substrate having an insulating surface; and a thin film transistor formed over the substrate, wherein the thin film transistor comprises: a semiconductor layer formed over the substrate, the semiconductor layer includes at least a low concentration impurity region (32d, 32e) and at least a high concentration impurity region (32b, 32c); a first insulating layer formed over the semiconductor layer; and a gate electrode formed over the first insulating layer, characterized in that the high concentration impurity region (32b, 32c) includes a first region having a first film thickness and a second region having a second film thickness that is thicker than the first film thickness in a region other than the side surfaces, such that the first insulating layer includes a third region having a third film thickness and a fourth region having a fourth film thickness that is thinner than the third film thickness in the region other than the side surfaces. a substrate having an insulating surface; and a thin film transistor formed over the substrate, wherein the thin film transistor comprises: a semiconductor layer formed over the substrate, the semiconductor layer includes at least a low concentration impurity region (32d, 32e) and at least a high concentration impurity region (32b, 32c); a first insulating layer formed over the semiconductor layer; and a gate electrode formed over the first insulating layer, characterized in that the high concentration impurity region (32b, 32c) includes a first region having a first film thickness and a second region having a second film thickness that is thicker than the first film thickness in a region other than the side surfaces, such that the first insulating layer includes a third region having a third film thickness and a fourth region having a fourth film thickness that is thinner than the third film thickness in the region other than the side surfaces. a semiconductor layer formed over the substrate, the semiconductor layer includes at least a low concentration impurity region (32d, 32e) and at least a high concentration impurity region (32b, 32c); a first insulating layer formed over the semiconductor layer; and a gate electrode formed over the first insulating layer, characterized in that the high concentration impurity region (32b, 32c) includes a first region having a first film thickness and a second region having a second film thickness that is thicker than the first film thickness in a region other than the side surfaces, such that the first insulating layer includes a third region having a third film thickness and a fourth region having a fourth film thickness that is thinner than the third film thickness in the region other than the side surfaces.
A radiation grill apparatus comprising a housing having opposing sides (22, 24) and a food support member on said housing, the housing comprising: an infrared radiation source arrangement along one of said opposing sides only and arranged to direct a portion of said infrared radiation onto the food support member such as to create a heat distribution across the food support member; a drip collection member facing the food support member; and a reflector arrangement arranged to redirect a further portion of said infrared radiation onto the food support member; characterized in that, the said reflector arrangement comprises a first parabolic reflector arranged to redirect part of said further portion of infrared radiation towards an end region (i0, i1) of the food support member distal to the infrared radiation source arrangement; and said reflector arrangement further comprises a further parabolic reflector arranged adjacent to an end point of the first reflector distal to said food support member, said further parabolic reflector being arranged to redirect part of said further portion of infrared radiation towards a central region of the food support member. an infrared radiation source arrangement along one of said opposing sides only and arranged to direct a portion of said infrared radiation onto the food support member such as to create a heat distribution across the food support member; a drip collection member facing the food support member; and a reflector arrangement arranged to redirect a further portion of said infrared radiation onto the food support member; characterized in that, the said reflector arrangement comprises a first parabolic reflector arranged to redirect part of said further portion of infrared radiation towards an end region (i0, i1) of the food support member distal to the infrared radiation source arrangement; and said reflector arrangement further comprises a further parabolic reflector arranged adjacent to an end point of the first reflector distal to said food support member, said further parabolic reflector being arranged to redirect part of said further portion of infrared radiation towards a central region of the food support member.
A method for producing a resistance heating element, said resistance heating element having a tubular shape, said resistance heating element being formed in one piece, said resistance heating element consisting of silicon carbide, comprising the following method steps: - forming a one-piece molded body from fibers of a fibrous material, said fibers having an unstructured fiber orientation, said molded body made of fibrous material being formed from a felt, said felt being a needled felt, said molded body comprising a round tube cross section, said molded body comprising a homogenous distribution of fibers, - impregnating the molded body with a matrix material, - curing the matrix material, - pyrolizing the materials of the molded body, - siliconizing the molded body, said molded body being formed into the resistance heating element. - forming a one-piece molded body from fibers of a fibrous material, said fibers having an unstructured fiber orientation, said molded body made of fibrous material being formed from a felt, said felt being a needled felt, said molded body comprising a round tube cross section, said molded body comprising a homogenous distribution of fibers, - impregnating the molded body with a matrix material, - curing the matrix material, - pyrolizing the materials of the molded body, - siliconizing the molded body, said molded body being formed into the resistance heating element.
A fusion protein comprising a clustered regularly interspersed short palindromic repeats (CRISPR) protein linked to at least one nucleosome interacting protein domain, wherein the CRISPR protein is a type II CRISPR/Cas9 nuclease or nickase, or the CRISPR protein is a type V CRISPR/Cpf1 nuclease or nickase, and wherein the fusion protein further comprises at least one nuclear localization signal, at least one cell-penetrating domain, at least one marker domain, or a combination thereof, and wherein the at least one nucleosome interacting protein domain is a high mobility group box (HMGB) DNA binding domain; a HMG nucleosome-binding (HMGN) protein; a central globular domain from histone H1; a DNA binding domain from a chromatin remodeling complex protein chosen from switch/sucrose non-fermentable (SWI/SNF) complex, imitation switch (ISWI) complex, chromodomain-helicase-DNA binding complex, nucleosome remodeling and deacetylase (NuRD) complex, INO80 complex, SWR1 complex, or RSC complex; or a combination thereof. wherein the CRISPR protein is a type II CRISPR/Cas9 nuclease or nickase, or the CRISPR protein is a type V CRISPR/Cpf1 nuclease or nickase, and wherein the fusion protein further comprises at least one nuclear localization signal, at least one cell-penetrating domain, at least one marker domain, or a combination thereof, and wherein the at least one nucleosome interacting protein domain is a high mobility group box (HMGB) DNA binding domain; a HMG nucleosome-binding (HMGN) protein; a central globular domain from histone H1; a DNA binding domain from a chromatin remodeling complex protein chosen from switch/sucrose non-fermentable (SWI/SNF) complex, imitation switch (ISWI) complex, chromodomain-helicase-DNA binding complex, nucleosome remodeling and deacetylase (NuRD) complex, INO80 complex, SWR1 complex, or RSC complex; or a combination thereof.
A method for cooling a natural gas feed comprising: a) reducing the pressure of the natural gas feed in a first expander generating power to produce a reduced pressure material gas; a2) cooling the reduced pressure material gas; b) removing heavy components from the reduced pressure material gas to produce a top fraction and a bottom fraction; c) cooling the top fraction to produce a cooled top fraction; d) separating the cooled top fraction into a gas phase component and a liquid phase component; e) increasing the pressure of the gas phase component using the power generated in the first expander to produce a compressed material gas; f) exchanging heat between the gas phase component and the compressed material gas to produce at least a cooled compressed material gas; and g) at least partially liquefying the cooled compressed material gas by exchanging heat with a refrigerant. a) reducing the pressure of the natural gas feed in a first expander generating power to produce a reduced pressure material gas; a2) cooling the reduced pressure material gas; b) removing heavy components from the reduced pressure material gas to produce a top fraction and a bottom fraction; c) cooling the top fraction to produce a cooled top fraction; d) separating the cooled top fraction into a gas phase component and a liquid phase component; e) increasing the pressure of the gas phase component using the power generated in the first expander to produce a compressed material gas; f) exchanging heat between the gas phase component and the compressed material gas to produce at least a cooled compressed material gas; and g) at least partially liquefying the cooled compressed material gas by exchanging heat with a refrigerant.
A motorised outrigger stabilised watercraft comprising: a main hull extending in a fore-aft direction; a single outrigger arranged to stabilise the main hull, extending substantially parallel to the main hull and spaced laterally from the main hull; and at least one hydrofoil located at or proximate the stern of the main hull characterised in that the outrigger comprises: a first portion arranged to be submerged below the waterline during operation; a joining portion joining the first portion to the watercraft, the joining portion having a width perpendicular to the fore-aft direction which is less than that of the first portion; and a second portion arranged to float during operation, the joining portion joining the first portion to the second portion; and wherein the angle of attack of the hydrofoil is dynamically adjustable and arranged to apply a variable force to the main hull. a main hull extending in a fore-aft direction; a single outrigger arranged to stabilise the main hull, extending substantially parallel to the main hull and spaced laterally from the main hull; and at least one hydrofoil located at or proximate the stern of the main hull characterised in that the outrigger comprises: a first portion arranged to be submerged below the waterline during operation; a joining portion joining the first portion to the watercraft, the joining portion having a width perpendicular to the fore-aft direction which is less than that of the first portion; and a second portion arranged to float during operation, the joining portion joining the first portion to the second portion; and a first portion arranged to be submerged below the waterline during operation; a joining portion joining the first portion to the watercraft, the joining portion having a width perpendicular to the fore-aft direction which is less than that of the first portion; and a second portion arranged to float during operation, the joining portion joining the first portion to the second portion; and
A tire, comprising: a tread supported by a crown, the crown being positioned radially inward of the tread, the crown including a belt package, each positioned radially inward of the tread; a pair of bead sections arranged to face each other in a tire width direction, each bead section including a circumferentially-inextensible bead core and a toe guard that forms an external surface of the bead section; a carcass layer constructed from a plurality of radially-oriented carcass layer cords embedded in an elastomeric matrix and extending through the crown and between the beads, the carcass layer ends being anchored in the pair of bead cores; a pair of sidewalls, each sidewall extending radially-inward from an axial edge of the crown and extending toward the bead section, each sidewall defining a side of the tire, wherein the sidewall covers that portion of the carcass layer extending from the crown section to the bead section and is formed of a sidewall material; and a protective coating covering an exposed surface of at least one of the pair of sidewalls, wherein the protective coating comprises a rubber composition that is based upon a cross-linkable elastomer composition, the cross-linkable elastomer composition comprising, per 100 parts by weight of rubber (phr): between 25 phr and 45 phr of natural rubber; between 25 phr and 45 phr of polybutadiene rubber; between 30 phr and 40 phr of EPDM; between 20 phr and 50 phr of carbon black; and a curing system. a tread supported by a crown, the crown being positioned radially inward of the tread, the crown including a belt package, each positioned radially inward of the tread; a pair of bead sections arranged to face each other in a tire width direction, each bead section including a circumferentially-inextensible bead core and a toe guard that forms an external surface of the bead section; a carcass layer constructed from a plurality of radially-oriented carcass layer cords embedded in an elastomeric matrix and extending through the crown and between the beads, the carcass layer ends being anchored in the pair of bead cores; a pair of sidewalls, each sidewall extending radially-inward from an axial edge of the crown and extending toward the bead section, each sidewall defining a side of the tire, wherein the sidewall covers that portion of the carcass layer extending from the crown section to the bead section and is formed of a sidewall material; and a protective coating covering an exposed surface of at least one of the pair of sidewalls, wherein the protective coating comprises a rubber composition that is based upon a cross-linkable elastomer composition, the cross-linkable elastomer composition comprising, per 100 parts by weight of rubber (phr): between 25 phr and 45 phr of natural rubber; between 25 phr and 45 phr of polybutadiene rubber; between 30 phr and 40 phr of EPDM; between 20 phr and 50 phr of carbon black; and a curing system. between 25 phr and 45 phr of natural rubber; between 25 phr and 45 phr of polybutadiene rubber; between 30 phr and 40 phr of EPDM; between 20 phr and 50 phr of carbon black; and a curing system.
Mechanical movement for a chronograph watch, comprising: - a regulating member with an axis and a balance-spring mounted on said axis, said regulating member allowing to regulate the running of the chronograph, - a launcher being arranged to give an impulse to start said regulating member when the user starts the chronograph; characterized in that - the regulating member has an oscillation frequency equal to or greater than 500 Hz; - said movement also comprises a hub made of a material with a voluminal mass lower than that of said axis, said hub serving to provide a support surface for the launcher, and being mounted on said axis; and in that - said launcher is arranged to give said impulse directly to said hub mounted on said axis. - a regulating member with an axis and a balance-spring mounted on said axis, said regulating member allowing to regulate the running of the chronograph, - a launcher being arranged to give an impulse to start said regulating member when the user starts the chronograph; - the regulating member has an oscillation frequency equal to or greater than 500 Hz; - said movement also comprises a hub made of a material with a voluminal mass lower than that of said axis, said hub serving to provide a support surface for the launcher, and being mounted on said axis; - said launcher is arranged to give said impulse directly to said hub mounted on said axis.
A rotary closure for connecting components, composed of a bolt having a locking cross protrusion, a cylindrical accommodation for the bolt, guiding means between the bolt and the accommodation, wherein the guiding means comprise at least one nose on the bolt, and groove-shaped recesses in the accommodation such that the bolt, when being moved in the direction between the initial position and the locking position, performs a spring force-assisted axial longitudinal movement, wherein the respective spring is tensioned, when the bolt is moved in the reverse direction, and the spring is arranged inside the accommodation and supports against an inner wall side projection, characterized in that the bolt has an axially extending passage opening, the passage opening receives a screw or a threaded pin, wherein a first end of the screw or of the threaded pin engages into a counter thread within the accommodation, and a second end of the screw or of the threaded pin comes to rest against a front side of the bolt or a portion of the locking cross protrusion so that, in the locking position, an additional force is applicable upon the components to be connected.
Coupling element, in particular coupling sleeve, for a hydraulic coupling on a pressure medium line, with a housing, a sleeve inner body, a pressure sleeve and a valve tappet, wherein the housing has at least one flow channel for a pressure medium and a coupling axis A, wherein the sleeve inner body, the pressure sleeve and the valve tappet are held so as to be displaceable along the coupling axis A within the housing, wherein at least the sleeve inner body, the pressure sleeve and the valve tappet can be displaced during a coupling process from an initial position along the coupling axis in a first direction into the housing into a coupling position, wherein, in the coupling position, a coupling plug is fixable to the coupling element by means of a locking means, wherein at least the sleeve inner body, the pressure sleeve and the valve tappet can be displaced from the coupling position in a second direction opposite the first direction along the coupling axis A into a stop position, wherein, in the stop position, a further movement at least of the pressure sleeve is blocked in the second direction, wherein the sleeve inner body and the valve tappet can be moved further in the second direction into an open position, wherein, in the open position, a flow cross-section is released between pressure sleeve and valve tappet, characterised in that, in the open position, an interlocking means acts on the sleeve inner body and the valve tappet, wherein a sleeve body is provided, wherein the sleeve inner body is guided in the sleeve body, wherein a return means in the form of a spring is arranged between sleeve body and sleeve inner body, wherein the locking means has at least one locking ball, at least one locking sleeve and at least one spring element and wherein the locking means acts between sleeve body and sleeve inner body.
A method for creating a silicone shell, the method comprising: a) providing a mandrel suitably sized and shaped for forming a desired shell; b) applying a coating silicone dispersion to the mandrel by spraying the silicone dispersion at low pressure to create a shell having a desired thickness; c) at least partially curing the silicone shell; and d) removing the silicone shell from the mandrel, characterized in that the dispersion is sprayed by rotary atomization, wherein the dispersion is fed into a rotary atomizer at or below 206.84 kPa (30 psi). a) providing a mandrel suitably sized and shaped for forming a desired shell; b) applying a coating silicone dispersion to the mandrel by spraying the silicone dispersion at low pressure to create a shell having a desired thickness; c) at least partially curing the silicone shell; and d) removing the silicone shell from the mandrel,