mhurhangee/ep-ind-claims huggingface dataset:
An electrical device comprising: a winding including an interior portion and an exterior surface, wherein the winding is wrapped around a core; a primary cooling system for cooling the exterior surface of the winding; and a secondary cooling system for cooling the interior portion of the winding, characterized by an actuator configured to activate the secondary cooling system in response to an activation signal indicating a predicted condition of the electrical device, wherein the predicted condition includes at least one of: an increased current flow through the winding in response to a solar event; an increased current flow through the winding in response to an electromagnetic pulse; a predicted temperature of the electrical device; a current flow through the electrical device above a threshold current. a winding including an interior portion and an exterior surface, wherein the winding is wrapped around a core; a primary cooling system for cooling the exterior surface of the winding; and a secondary cooling system for cooling the interior portion of the winding, characterized by an actuator configured to activate the secondary cooling system in response to an activation signal indicating a predicted condition of the electrical device, wherein the predicted condition includes at least one of: an increased current flow through the winding in response to a solar event; an increased current flow through the winding in response to an electromagnetic pulse; a predicted temperature of the electrical device; an increased current flow through the winding in response to a solar event; an increased current flow through the winding in response to an electromagnetic pulse; a predicted temperature of the electrical device;
A method implemented in a user terminal for accessing a radio channel, comprising: transmitting a random access preamble using a random access channel radio resource to a radio base station; receiving a random access response message from the radio base station, wherein the random access response message indicates an identified radio resource and a user terminal identifier indicating a scrambling sequence that is not specifically assigned to any user terminal; determining an uplink scrambling sequence based on the user terminal identifier included in the random access response message; transmitting a message 3 to the radio base station, wherein the message 3 includes a user terminal identity, and wherein the message 3 is transmitted over the identified radio resource, and wherein the message 3 is scrambled using the determined uplink scrambling sequence; receiving a message from the radio base station, which includes the user terminal identity; and transmitting a subsequent data transmission scrambled with an uplink scrambling sequence based on the user terminal identity. transmitting a random access preamble using a random access channel radio resource to a radio base station; receiving a random access response message from the radio base station, wherein the random access response message indicates an identified radio resource and a user terminal identifier indicating a scrambling sequence that is not specifically assigned to any user terminal; determining an uplink scrambling sequence based on the user terminal identifier included in the random access response message; transmitting a message 3 to the radio base station, wherein the message 3 includes a user terminal identity, and wherein the message 3 is transmitted over the identified radio resource, and wherein the message 3 is scrambled using the determined uplink scrambling sequence; receiving a message from the radio base station, which includes the user terminal identity; and transmitting a subsequent data transmission scrambled with an uplink scrambling sequence based on the user terminal identity.
A method for random access, applied to a terminal device, the method comprises: receiving a random access response message sent by a network side; and determining whether a random access response in the random access response message is responsive to the terminal device based on indication information in the random access response message, wherein the indication information is able to at least indicate different types of random access responses, and the indication information comprises second indication information configured to indicate different types of random access responses; characterized in that, when the indication information only comprises the second indication information, a random access preamble identifier, RAPID, acquired from the second indication information is consistent with the RAPID sent by the terminal device and the random access process type indicated by the second indication information is consistent with the random access process type selected by the terminal device, determining that the random access response in the random access response message is a response for the terminal device; or, when the indication information only comprises the second indication information, the RAPID acquired from the second indication information is consistent with the RAPID sent by the terminal device and the random access response type indicated by the second indication information corresponds to the random access process type selected by the terminal device, determining that the random access response in the random access response message is a response for the terminal device. receiving a random access response message sent by a network side; and determining whether a random access response in the random access response message is responsive to the terminal device based on indication information in the random access response message, wherein the indication information is able to at least indicate different types of random access responses, and the indication information comprises second indication information configured to indicate different types of random access responses; characterized in that, when the indication information only comprises the second indication information, a random access preamble identifier, RAPID, acquired from the second indication information is consistent with the RAPID sent by the terminal device and the random access process type indicated by the second indication information is consistent with the random access process type selected by the terminal device, determining that the random access response in the random access response message is a response for the terminal device; or, when the indication information only comprises the second indication information, the RAPID acquired from the second indication information is consistent with the RAPID sent by the terminal device and the random access response type indicated by the second indication information corresponds to the random access process type selected by the terminal device, determining that the random access response in the random access response message is a response for the terminal device.
A load arm for a fork of a low lift industrial truck, with an arm frame which is approximately U-shaped in cross section with upward pointing bridge of a bridge plate and downward pointing legs of leg plates (16a, 18a), the leg plates (16a, 18a) having a thickness, and an arm tip which is tapered towards the free end and comprises bearing openings for the bearing of a load roller and, on the lower side, introduction and withdrawal surfaces, which ascend or fall off, respectively, towards the free end of the arm tip with respect to the lower edges of the arm frame, wherein the arm tip comprises, at the rear end, an abutting surface which abuts against the blunt end of the arm frame, and, on the end facing the arm frame, arm sections (30, 32) which extend below the associated edges of the arm frame and lie against the lower edges of the arm frame when arm frame and arm tip cling together, wherein the withdrawal surfaces are provided on the lower side of the arm sections (30, 32), characterised in that the bridge plate and the leg plates (16a, 18a) are welded to each other, and the arm tip is formed by an integral piece of cast material and is connected to the arm frame via a welding connection, the lower edges of the arm frame having a width corresponding to the thickness of the leg plates (16a, 18a), and the arm sections (30, 32) each being approximately as wide as the lower edges of the arm frame.
A flow cytometer comprising: (a) a sample manipulation chamber comprising a first access hole (b) a sealing cartridge adjustably sealing the first access hole of the sample manipulation chamber, wherein the sealing cartridge comprises: (i) a slider tape comprising a second access hole, and (ii) a first winder at one end of the slider tape, configured to reversibly wind the slider tape; and (c) a mobile arm that penetrates the first and second access holes (31, 4) of the slider tape and the sample manipulation chamber, when the first and second hole are aligned. (a) a sample manipulation chamber comprising a first access hole (b) a sealing cartridge adjustably sealing the first access hole of the sample manipulation chamber, wherein the sealing cartridge comprises: (i) a slider tape comprising a second access hole, and (ii) a first winder at one end of the slider tape, configured to reversibly wind the slider tape; and (c) a mobile arm that penetrates the first and second access holes (31, 4) of the slider tape and the sample manipulation chamber, when the first and second hole are aligned.
Use of a loom for weaving a shoe upper with two types of tissue, wherein the loom comprises: a first heddle stack formed by arranging a plurality of first heddles in one or more rows; and a second heddle stack formed by arranging a plurality of second heddles in one or more rows, the second heddles being different in kind from the first heddles, wherein the first heddle stack and the second heddle stack are sequentially arranged in a warp (102, 103) feeding direction, wherein each of the first heddles is a leno heddle, and each of the second heddles is a jacquard heddle, first warp and second warp are fed through the leno heddle, and third warp is fed through the jacquard heddle, the first warp and the second warp are interwoven with weft to form a leno tissue fabric, and the third warp is interwoven with the weft to form a jacquard tissue fabric, and wherein the first heddle stack is located in front of the second heddle stack with respect to the warp feeding direction. a first heddle stack formed by arranging a plurality of first heddles in one or more rows; and a second heddle stack formed by arranging a plurality of second heddles in one or more rows, the second heddles being different in kind from the first heddles, wherein the first heddle stack and the second heddle stack are sequentially arranged in a warp (102, 103) feeding direction, wherein each of the first heddles is a leno heddle, and each of the second heddles is a jacquard heddle, first warp and second warp are fed through the leno heddle, and third warp is fed through the jacquard heddle, the first warp and the second warp are interwoven with weft to form a leno tissue fabric, and the third warp is interwoven with the weft to form a jacquard tissue fabric, and wherein the first heddle stack is located in front of the second heddle stack with respect to the warp feeding direction.
Method for producing a sensor having the following steps: pre-injection mold around a sensor element (1, 20) with IC to produce a pre-molded part (5, 24) which is realized such that, as a result of an interference fit, it is able to receive electric contacts (7, 26) for the sensor with different dimensions and/or in different positions; press the electric contacts (7, 26) into recesses/indentations of the pre-molded part (5, 24; connect the connections of the IC of the sensor element (1, 20) to the electric contacts (7, 26); insert the pre-molded part (5, 24) into an injection molding mold and injection-mold around the pre-molded part to produce the finished sensor. pre-injection mold around a sensor element (1, 20) with IC to produce a pre-molded part (5, 24) which is realized such that, as a result of an interference fit, it is able to receive electric contacts (7, 26) for the sensor with different dimensions and/or in different positions; press the electric contacts (7, 26) into recesses/indentations of the pre-molded part (5, 24; connect the connections of the IC of the sensor element (1, 20) to the electric contacts (7, 26); insert the pre-molded part (5, 24) into an injection molding mold and injection-mold around the pre-molded part to produce the finished sensor.
A compound, or a tautomer thereof, or a pharmaceutically acceptable salt of said compound or said tautomer, wherein said compound is selected from the group consisting of:
A process for preparing a seam area for a paper machine clothing base fabric, said process comprising the steps of: forming the PMC base fabric by flat-weaving, the PMC base fabric including a plurality of warp yarns extending in a machine direction and a plurality of weft yarns extending in a cross machine direction and interwoven with said plurality of warp yarns, said plurality of weft yarns including a plurality of first weft yarns and at least one second weft yarn, said at least one second weft yarn being a specialty yarn, said plurality of warp yarns, said plurality of first weft yarns, and said at least one specialty yarn being woven together on a loom in an original weaving process, said at least one specialty yarn being positioned in an anticipated said seam area; and folding over the PMC base fabric, after weaving said at least one specialty yarn with said plurality of warp yarns, to form a seam loop of the PMC base fabric such that said at least one specialty yarn is a first one of said plurality of weft yarns on a sheet side of said seam loop. forming the PMC base fabric by flat-weaving, the PMC base fabric including a plurality of warp yarns extending in a machine direction and a plurality of weft yarns extending in a cross machine direction and interwoven with said plurality of warp yarns, said plurality of weft yarns including a plurality of first weft yarns and at least one second weft yarn, said at least one second weft yarn being a specialty yarn, said plurality of warp yarns, said plurality of first weft yarns, and said at least one specialty yarn being woven together on a loom in an original weaving process, said at least one specialty yarn being positioned in an anticipated said seam area; and folding over the PMC base fabric, after weaving said at least one specialty yarn with said plurality of warp yarns, to form a seam loop of the PMC base fabric such that said at least one specialty yarn is a first one of said plurality of weft yarns on a sheet side of said seam loop.
Coking plant of the type comprising a series of coking ovens, each oven comprising a coking chamber equipped with lateral discharge doors (3, 4), said chamber communicating with a riser equipped with a coking gas evacuation pipe, the evacuation pipes of each oven opening into a collecting barrel which is itself connected to a coking gas processing circuit (12, 13, 14), said barrel comprising a closing plate, at least one evacuation pipe of one of said ovens further comprising means for projecting pressurised liquid onto the wall of said evacuation pipe, counter-currently relative to the direction of flow of the gases leaving the chamber, said evacuation pipe comprising safety means which are situated above said collecting barrel and are of such a size that the pressurised liquid projected by the projecting means cannot reach said riser, said projecting means being positioned above said closing plate.
Brewing method comprising a step of putting a brewing product in contact with a heat transmission element, said method being characterised in that it comprises a step of heating said brewing product, wherein said heat transmission element is heated by electromagnetic induction, so as itself in return to heat said brewing product, said method comprising a step of depositing said brewing product in a vessel, said heat transmission element comprising at least said vessel, said vessel being made from a metal material able to be heated by electromagnetic induction, so that said vessel is directly heated by electromagnetic induction.
Device for atomising a liquid, having a container for receiving the liquid to be atomised and at least three oscillators (1, 2, 3, 4) for generating ultrasonic oscillations, which are arranged in the container and have flat surfaces that transmit the oscillations to the liquid, the surfaces not being parallel to one another, characterised in that - the oscillators (1, 2, 3, 4) are oriented such that the first straight lines of all oscillators (1, 2, 3, 4), which are perpendicular to the surfaces, are skewed relative to each other; - the first straight lines, which are perpendicular to the surfaces of the oscillators (1, 2, 3, 4) lie on the surface of a rotational hyperboloid. - the oscillators (1, 2, 3, 4) are oriented such that the first straight lines of all oscillators (1, 2, 3, 4), which are perpendicular to the surfaces, are skewed relative to each other; - the first straight lines, which are perpendicular to the surfaces of the oscillators (1, 2, 3, 4) lie on the surface of a rotational hyperboloid.
A suspension system receiving an associated cable, the suspension system comprising: first and second mount arms (150, 152) disposed in spaced relation; and a collar assembly having first and second collar members (124, 126) dimensioned to circumferentially enclose around the associated cable in a first assembled position, and a second open position, where the first and second collar members (124, 126) do not circumferentially enclose the associated cable; characterized in that: first and second posts (180, 182) in spaced relation extend between and join the first and second mount arms (150, 152) together, the first post including a first sheave assembly having a rotatable first sheave secured thereto, and the second post including a second sheave assembly having a rotatable second sheave secured thereto; the collar assembly is mounted to the first and second mount arms (150, 152) for rotation relative thereto; and a float attachment is joined to the first mount arm, the float attachment configured and mounted for rotation relative to the first mount arm. first and second mount arms (150, 152) disposed in spaced relation; and a collar assembly having first and second collar members (124, 126) dimensioned to circumferentially enclose around the associated cable in a first assembled position, and a second open position, where the first and second collar members (124, 126) do not circumferentially enclose the associated cable; characterized in that: first and second posts (180, 182) in spaced relation extend between and join the first and second mount arms (150, 152) together, the first post including a first sheave assembly having a rotatable first sheave secured thereto, and the second post including a second sheave assembly having a rotatable second sheave secured thereto; the collar assembly is mounted to the first and second mount arms (150, 152) for rotation relative thereto; and a float attachment is joined to the first mount arm, the float attachment configured and mounted for rotation relative to the first mount arm. first and second posts (180, 182) in spaced relation extend between and join the first and second mount arms (150, 152) together, the first post including a first sheave assembly having a rotatable first sheave secured thereto, and the second post including a second sheave assembly having a rotatable second sheave secured thereto; the collar assembly is mounted to the first and second mount arms (150, 152) for rotation relative thereto; and a float attachment is joined to the first mount arm, the float attachment configured and mounted for rotation relative to the first mount arm.
Device for connecting body tissues, having a head part, which can be pushed into a body opening and has a longitudinal axis, wherein a plurality of tissue staples are accommodated in the head part in a storage position, which tissue staples consist of a linear main section and two engagement sections projecting perpendicularly therefrom and are each aligned in a first plane which is substantially perpendicular to the longitudinal axis, and having a hydraulic cylinder and a cylinder rod which is fixedly connected to a slider, characterised in that the hydraulic cylinder and/or the cylinder rod are arranged at least partially inside the space which lies between the engagement sections of the tissue staples in the storage position, and in that two rotor elements are provided, which are pivotable about an axis parallel to the main sections of the tissue staples and which each have a bearing surface for an engagement section of a tissue staple in order to rotate the said tissue staple from the storage position into a working position, in which the tissue staple is arranged in a further plane, which is oriented substantially perpendicularly to the first plane, and in that a slider is provided in order to advance the tissue staple which is present in the working position in the further plane and to deform it into a clamping position.
A rubber-reinforcing cord for reinforcing a rubber product, the rubber-reinforcing cord comprising: at least one strand, wherein the strand comprises at least one filament bundle and a coating provided to cover at least a portion of a surface of the filament bundle, the coating comprises a rubber component and a crosslinking agent, and the crosslinking agent comprises two or more isocyanate compounds, wherein the coating is free of a resorcinol-formaldehyde condensate. the strand comprises at least one filament bundle and a coating provided to cover at least a portion of a surface of the filament bundle, the coating comprises a rubber component and a crosslinking agent, and the crosslinking agent comprises two or more isocyanate compounds, wherein the coating is free of a resorcinol-formaldehyde condensate.
Process for synthesizing an ω -amino acid compound of formula HOOC-(CH 2) r+2 -CH 2 NH 2, where, 4 ≤ r ≤ 13 comprising: 1) a step of hydroformylation of an unsaturated fatty nitrile chosen from the compounds of formula: CH 2 =CH-(CH 2) r -CN, and mixtures thereof, by reacting said nitrile with carbon monoxide and dihydrogen so as to obtain at least one fatty nitrile aldehyde of formula: HOC-(CH 2) r+2 -CN, 2) a step of oxidation in the presence of dioxygen, during which the nitrile-aldehyde obtained in step 1) is converted into a fatty nitrile-acid of formula: HOOC-(CH 2) r+2 -CN, 3) a reduction step during which the nitrile-acid obtained in step 2) is converted into an ω -amino acid of formula: HOOC-(CH 2) r+2 -CH 2 NH 2, wherein the hydroformylation step is catalyzed in the presence of a catalyst system comprising: - at least one metal chosen from rhodium, cobalt and ruthenium, and mixtures thereof; and - at least one chelating diphosphine bidentate ligand or monodentate ligand of the monophosphine or monophosphite type. 1) a step of hydroformylation of an unsaturated fatty nitrile chosen from the compounds of formula: CH 2 =CH-(CH 2) r -CN, and mixtures thereof, by reacting said nitrile with carbon monoxide and dihydrogen so as to obtain at least one fatty nitrile aldehyde of formula: HOC-(CH 2) r+2 -CN, 2) a step of oxidation in the presence of dioxygen, during which the nitrile-aldehyde obtained in step 1) is converted into a fatty nitrile-acid of formula: HOOC-(CH 2) r+2 -CN, 3) a reduction step during which the nitrile-acid obtained in step 2) is converted into an ω -amino acid of formula: HOOC-(CH 2) r+2 -CH 2 NH 2, wherein the hydroformylation step is catalyzed in the presence of a catalyst system comprising: - at least one metal chosen from rhodium, cobalt and ruthenium, and mixtures thereof; and - at least one chelating diphosphine bidentate ligand or monodentate ligand of the monophosphine or monophosphite type. - at least one metal chosen from rhodium, cobalt and ruthenium, and mixtures thereof; and - at least one chelating diphosphine bidentate ligand or monodentate ligand of the monophosphine or monophosphite type.