mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a stabilizer dispersion S comprising a) at least one phenolic stabilizer A; b) at least one thio co-stabilizer B; c) at least one surfactant C; d) at least one silicon oil component D; e) optional at least one further component E; and f) an aqueous phase P comprising at least 80 % by weight, based on the total aqueous phase P, water wherein the process comprises the following steps: i) providing an aqueous composition comprising the aqueous phase P; ii) adding the at least one thio co-stabilizer B to the aqueous composition obtained in step i), wherein the temperature of the aqueous composition is higher than or equal to the melting point of the at least one thio co-stabilizer B; iii) adding the at least one phenolic stabilizer A to the aqueous composition obtained in step ii), wherein the temperature of the aqueous composition is higher than or equal to the melting point of the at least one thio co-stabilizer B; iv) adding at least one surfactant C; v) adding at least one silicon oil component D and optionally at least one further component E; vi) homogenization of the aqueous composition obtained in steps i) to v) wherein the aqueous composition is passed at least once through at least one homogenization device, wherein the stabilizer dispersion S, consisting of an continuous phase and at least one disperse phase, is obtained. a) at least one phenolic stabilizer A; b) at least one thio co-stabilizer B; c) at least one surfactant C; d) at least one silicon oil component D; e) optional at least one further component E; and f) an aqueous phase P comprising at least 80 % by weight, based on the total aqueous phase P, water i) providing an aqueous composition comprising the aqueous phase P; ii) adding the at least one thio co-stabilizer B to the aqueous composition obtained in step i), wherein the temperature of the aqueous composition is higher than or equal to the melting point of the at least one thio co-stabilizer B; iii) adding the at least one phenolic stabilizer A to the aqueous composition obtained in step ii), wherein the temperature of the aqueous composition is higher than or equal to the melting point of the at least one thio co-stabilizer B; iv) adding at least one surfactant C; v) adding at least one silicon oil component D and optionally at least one further component E; vi) homogenization of the aqueous composition obtained in steps i) to v) wherein the aqueous composition is passed at least once through at least one homogenization device, wherein the stabilizer dispersion S, consisting of an continuous phase and at least one disperse phase, is obtained.
A manufacturing method from a coating which is in the form of a roller of a plurality of coatings (10A, 10B) each having a face (2A, 2B) partially covered with an adhesive along at least one of their longitudinal edges, said face (2A, 2B) is intended to come into contact with a support, characterized in that it comprises at least the following steps: a) Having a coating in the form of a roller with an unwinding direction; b) Unwinding the coating roller according to said unwinding direction; c) Fixing, on a first face of the coating which is intended to come into contact with the support, at least one adhesive strip according to said unwinding direction; d) Performing at least one cut (D1, D2, D3) according to said unwinding direction in the at least one adhesive strip so as to obtain said plurality of coatings (10A, 10B), each of which faces (2A, 2B) intended to come into contact with the support is partially covered with adhesive (4A, 4B) along least one of their longitudinal edges, so that the adhesive is flush with the coatings and only the edges of the faces intended to come into contact with the support are provided with adhesive. a) Having a coating in the form of a roller with an unwinding direction; b) Unwinding the coating roller according to said unwinding direction; c) Fixing, on a first face of the coating which is intended to come into contact with the support, at least one adhesive strip according to said unwinding direction; d) Performing at least one cut (D1, D2, D3) according to said unwinding direction in the at least one adhesive strip so as to obtain said plurality of coatings (10A, 10B), each of which faces (2A, 2B) intended to come into contact with the support is partially covered with adhesive (4A, 4B) along least one of their longitudinal edges, so that the adhesive is flush with the coatings and only the edges of the faces intended to come into contact with the support are provided with adhesive.
A composition comprising an aqueous solution of a cyclopropene molecular complex comprising a cyclopropene and a molecular encapsulating agent, and at least one sugar, wherein the cyclopropene is 1-methylcyclopropene, wherein the molecular encapsulating agent comprises a cyclodextrin; and wherein the aqueous solution is at least 25% saturated with the at least one sugar.
Arrangement for articulatedly connecting a roller curtain of a roller shutter to a roller shutter shaft, wherein the arrangement comprises a connecting member and a linear link chain, the first chain link of which can be connected to the roller shutter shaft so as to be pivotable about a first pivot axis, and the last chain link of which is connected to the connecting member so as to be pivotable about a second pivot axis which extends in parallel with the first pivot axis, wherein the connecting member comprises a hook-shaped connection device, viewed in parallel with the pivot axes (S1, S2), for establishing a connection to a first roller shutter slat of the roller curtain, which connection is pivotable about a third pivot axis that is parallel to the first and the second pivot axis (S1, S2), characterized in that the connecting member has a pivot stop for the first roller shutter slat, which pivot stop is arranged on an inner side of the connecting member facing the roller shutter shaft and which is located on a side of the third pivot axis facing away from the linear link chain, for limiting a pivot angle of the first roller shutter slat to the connecting member about the third pivot axis in a pivoting direction, wherein the pivot stop has a stop surface for an inner side of the first roller shutter slat.
A three-dimensional 3D, memory device, comprising: a substrate; a plurality of memory strings (408, 514) arranged along a first lateral direction and a second lateral direction in a plan view, wherein each of the plurality of memory strings (408, 514) extending vertically above the substrate (502, 708) in a memory region; a plurality of bit lines (404, 524) extending along the second lateral direction over the plurality of memory strings (408, 514), the plurality of bit lines (404, 524) being parallel with one another; and a cut structure overlapping with at least one of the plurality of memory strings (408, 514) in the plan view and dividing the plurality of memory strings into a first portion and a second portion along the second lateral direction, wherein a number of bit lines above at least one of the plurality of memory strings is at least three, wherein the first portion and the second portion of the plurality of memory strings (408, 514) comprise a same number of string rows along the second lateral direction and a same number of string columns along the first lateral direction; and each one of the plurality of bit lines (404, 524) is electrically connected to one memory string in the first portion and another memory string in the second portion; and the first portion and the second portion of the plurality of memory strings have the same arrangement of memory strings, an upper semiconductor plug formed at an upper portion of memory string (408, 514) as drain of the memory string, wherein the upper semiconductor plug is recessed back into the memory string. a substrate; a plurality of memory strings (408, 514) arranged along a first lateral direction and a second lateral direction in a plan view, wherein each of the plurality of memory strings (408, 514) extending vertically above the substrate (502, 708) in a memory region; a plurality of bit lines (404, 524) extending along the second lateral direction over the plurality of memory strings (408, 514), the plurality of bit lines (404, 524) being parallel with one another; and a cut structure overlapping with at least one of the plurality of memory strings (408, 514) in the plan view and dividing the plurality of memory strings into a first portion and a second portion along the second lateral direction, wherein a number of bit lines above at least one of the plurality of memory strings is at least three, wherein the first portion and the second portion of the plurality of memory strings (408, 514) comprise a same number of string rows along the second lateral direction and a same number of string columns along the first lateral direction; and each one of the plurality of bit lines (404, 524) is electrically connected to one memory string in the first portion and another memory string in the second portion; and the first portion and the second portion of the plurality of memory strings have the same arrangement of memory strings, an upper semiconductor plug formed at an upper portion of memory string (408, 514) as drain of the memory string, wherein the upper semiconductor plug is recessed back into the memory string.
Cleaning device for cleaning pipelines, having a spring shaft, which is housed in a rotatably driven drum and which is abutted by at least one roller which can be adjusted by means of a handle, which roller exerts a feed force on the spring shaft and presses it against a support, wherein the handle is arranged transversely with respect to the spring shaft and is connected in a rotationally fixed manner to a carrier for the adjustable roller, which carrier is adjustably mounted in an opening of a housing, characterized in that the handle is rotatable about its longitudinal axis, in that the carrier is pressure-loaded in the direction of the spring shaft and is under the force of at least one pressure spring, which can be tensioned by at least one tensioning element, through which an axis of the handle passes, and in that the support is formed by two further positionally fixed rollers (51, 52), which are opposite the adjustable roller.
An inductor having a coil and a core, wherein the core is made of a Soft Magnetic Composite, the coil is composed of a annularly wound electrical wire, the coil is substantially integrated into said core so that the core material acts as a thermal conductor having thermal conductivity above 1,5 W/m*K more preferably 2 W/m*K most preferably 3 W/m*K, conducting heat from said coil, wherein the inductor is in thermal connection with at least one thermal connecting fixture (10 - 17, 19-24), wherein said at least one thermal connecting fixture (10 - 17, 19-24) is adapted to be connected to a first external heat receiver so as to conduct heat from the inductor to said first external heat receiver, and the core has at least one integrated cooling pipe wherein said cooling pipe/pipes are in thermal connection with said coil and said cooling pipe/pipes are adapted to accommodate a flow of a fluid for transporting heat from said coil.
A method for producing a soft shaped semi-rigid tortilla which is set into preformed 3-dimensional shape adapted to hold edible fillings, wherein the shape is other than flat, wherein the method is selected from the following: a. pressing raw tortilla dough into at least one mould, comprising a shape, and heating the dough in the mould until the dough is fully cooked and formed into the shape of the mould; and b. pressing raw tortilla dough into at least one mould, comprising a shape, heating the dough long enough to form into a shape of the mould, removing shaped dough from the mould, and further heating the shaped dough until fully cooked. a. pressing raw tortilla dough into at least one mould, comprising a shape, and heating the dough in the mould until the dough is fully cooked and formed into the shape of the mould; and b. pressing raw tortilla dough into at least one mould, comprising a shape, heating the dough long enough to form into a shape of the mould, removing shaped dough from the mould, and further heating the shaped dough until fully cooked.
A fuel cell including a cell unit formed by sandwiching an electrolyte electrode assembly (14, 18) between a first separator and a second separator, the electrolyte electrode assembly (14, 18) including a pair of electrodes (24, 26) and an electrolyte interposed between the electrodes (24, 26), wherein the first separator and/or the second separator includes two plates (82a, 82b) being joined together; a frame member (28a, 28b) made of polymer material being provided integrally with an outer circumference of the electrolyte electrode assembly (14, 18), fluid passages including a reactant gas supply passage (30a, 34a), a reactant gas discharge passage (30b, 34b), a coolant supply passage, and a coolant discharge passage extending through the frame member (28a, 28b) in the stacking direction, a seal member (48, 50) for hermetically surrounding the fluid passages and an outer circumference of a reaction surface being provided between the frame members (28a, 28b) that are adjacent to each other in the stacking direction, wherein outer circumferential ends of the first separator and the second separator are positioned on an inward side relative to the fluid passages, characterized in that the two plates (82a, 82b) of the first separator and/or the second separator have the same outer shape, wherein the seal member (48, 50) forms an inner seal line which contacts outer circumferential end surfaces of the first separator and the second separator; and an outer seal line provided around outer circumferential ends of the first separator and the second separator.
Method for the production of ethylene, in which a process gas is formed using a dehydrogenation of ethane, which process gas contains at least ethane, ethylene, and compounds having a lower boiling point than ethane and ethylene, in which a fractional charge is formed using at least a portion of the process gas and is subjected to a cryogenic separation, in which the fractional charge is cooled, and in which one or more condensates are precipitated from the fractional charge, and in which at least a portion of the one or more condensates is subjected to a cryogenic rectification, with yield of a gaseous first fraction and a liquid second fraction, wherein the gaseous first fraction contains at least the ethane and ethylene in a smaller proportion than in the fractional charge and contains the compounds having a lower boiling point than ethane and ethylene in a larger proportion than in the fractional charge, characterized in that the first fraction is subjected at least in part to a pressure swing adsorption by means of which a third fraction predominantly or exclusively containing ethylene and ethane and a fourth fraction predominantly or exclusively containing methane and carbon monoxide are formed.
A crossbar (100, 100') for a communication network, said crossbar (100, 100') comprising: - a mapper configured to receive a client signal and to map said client signal into at least one tributary of a TDM input flow; - a slicer configured to slice said TDM input flow into K TDM input sub-flows (Si1 1, Si1 2) on a per-tributary basis, by slicing said input tributary into K input sub-tributaries (11 1, 11 2) of said K TDM input sub-flows (Si1 1, Si1 2), K being an integer number equal to or higher than 2; - K TDM switches (S1, S2), each TDM switch being configured to receive a respective TDM input sub-flow (Si1 1, Si1 2) and to switch the input sub-tributary of the received TDM input sub-flow into an output sub-tributary of a TDM output sub-flow, said K TDM switches (S1, S2) thereby providing K TDM output sub-flows (So4 1, So4 2) comprising K output sub-tributaries (4T 1, 4T 2) carrying said client signal; - a deslicer configured to merge said K TDM output sub-flows (So4 1, So4 2) in a TDM output flow on a per-tributary basis, by merging said K output sub-tributaries (4T 1, 4T 2) into an output tributary of said TDM output flow; and - a demapper configured to extract said client signal from said output tributary of said TDM output flow. - a mapper configured to receive a client signal and to map said client signal into at least one tributary of a TDM input flow; - a slicer configured to slice said TDM input flow into K TDM input sub-flows (Si1 1, Si1 2) on a per-tributary basis, by slicing said input tributary into K input sub-tributaries (11 1, 11 2) of said K TDM input sub-flows (Si1 1, Si1 2), K being an integer number equal to or higher than 2; - K TDM switches (S1, S2), each TDM switch being configured to receive a respective TDM input sub-flow (Si1 1, Si1 2) and to switch the input sub-tributary of the received TDM input sub-flow into an output sub-tributary of a TDM output sub-flow, said K TDM switches (S1, S2) thereby providing K TDM output sub-flows (So4 1, So4 2) comprising K output sub-tributaries (4T 1, 4T 2) carrying said client signal; - a deslicer configured to merge said K TDM output sub-flows (So4 1, So4 2) in a TDM output flow on a per-tributary basis, by merging said K output sub-tributaries (4T 1, 4T 2) into an output tributary of said TDM output flow; and - a demapper configured to extract said client signal from said output tributary of said TDM output flow.
Method for threat handling of a ground based vehicle, comprising the steps of: - providing at least two kinds of systems (250; 260) for said threat handling; - providing means (200; 250; 260; 310, 330; 340) for determining information about said threat; and - providing a control unit for controlling provided systems (250; 260) and for determining actions for handling said threat depending on said information, characterized by the steps of: - providing a separate hardware safety configuration unit; - providing said separate hardware safety configuration unit with information about said threat determined by means of provided means (200; 250; 260; 310; 330; 340) so as to in an evaluation step deciding if said control unit should be given a go ahead for handling said threat or not. - providing at least two kinds of systems (250; 260) for said threat handling; - providing means (200; 250; 260; 310, 330; 340) for determining information about said threat; and - providing a control unit for controlling provided systems (250; 260) and for determining actions for handling said threat depending on said information, - providing a separate hardware safety configuration unit; - providing said separate hardware safety configuration unit with information about said threat determined by means of provided means (200; 250; 260; 310; 330; 340) so as to in an evaluation step deciding if said control unit should be given a go ahead for handling said threat or not.
A bonding material comprising: silver nanoparticles which have an average primary particle diameter of 1 nm to 200 nm and have been coated with an organic substance having 8 or less carbon atoms; a dispersion medium; and a viscosity modifier composed of an organic substance, wherein the bonding material has a viscosity measured at a shear rate of 15.7 [1/s] of 100 Pa·s or lower and a thixotropic ratio (a viscosity measured at a shear rate of 3.1 [1/s] / a viscosity measured at a shear rate of 15.7 [1/s]) of 4 or lower, wherein the viscosity modifier is any of 2-methoxyethoxyacetic acid and 2-butoxyethoxyacetic acid, wherein the particle diameter of the silver nanoparticles is calculated from a transmission electron microscope photograph or scanning electron microscope photograph and wherein the viscosity is measured at a temperature of 25°C.
A heat transfer tube, in particular a finned tube, for an air-heated evaporator for heating and/or evaporating cryogenic fluids, with a tube portion and a coating, which is provided on the outer side of the tube portion and has a hydrophilic component and a hydrophobic component, the hydrophilic component forming in the coating seed points, which are peripherally enclosed by the hydrophobic component, for condensing air moisture on the same and the seed points having a size of less than 100 nm.
Thermoforming machine comprising a press for thermoforming items, a gripping member for extraction of thermoformed items from said press, and a conveyor for transportation of items in output, characterised in that: the machine comprises a first item-carrying container and a second item-carrying container, said gripping member is arranged to carry out a work cycle between a position for extraction of items from the press and a position for delivery of items to the first container, said second container is movable at least between a loading position and a delivery position for delivery to said conveyor, the second container, while in the loading position, is coaxially aligned with respect to the first container according to a loading axis, the first container and the second container, in the loading position, are arranged to receive a stack of items comprising a plurality of layers of items stacked according to said loading axis, starting from a first base layer, the machine comprises a first translator and a second translator, each of said translators being suitable for supporting said first base layer of the stack of items with an advance motion along the loading axis synchronised with said work cycle of the gripping member, and said translators operating in series respectively with a first work stroke (C 1) and a second work stroke (C 2) along said loading axis, characterized in that the first container and the second container are configured as baskets or cages. the machine comprises a first item-carrying container and a second item-carrying container, said gripping member is arranged to carry out a work cycle between a position for extraction of items from the press and a position for delivery of items to the first container, said second container is movable at least between a loading position and a delivery position for delivery to said conveyor, the second container, while in the loading position, is coaxially aligned with respect to the first container according to a loading axis, the first container and the second container, in the loading position, are arranged to receive a stack of items comprising a plurality of layers of items stacked according to said loading axis, starting from a first base layer, the machine comprises a first translator and a second translator, each of said translators being suitable for supporting said first base layer of the stack of items with an advance motion along the loading axis synchronised with said work cycle of the gripping member, and said translators operating in series respectively with a first work stroke (C 1) and a second work stroke (C 2) along said loading axis, characterized in that the first container and the second container are configured as baskets or cages.