mhurhangee/ep-ind-claims huggingface dataset:
A power cable comprising: a stranded conductor including a plurality of wires; an inner semiconducting layer covering the stranded conductor; and an insulating layer covering the inner semiconducting layer, wherein the stranded conductor comprises a plurality of conductor layers (11, 12) formed by arranging a plurality of wires in a circumferential direction of a center wire, the plurality of conductor layers (11, 12) comprise: an outermost conductor layer, and at least one inner conductor layer inside the outermost conductor layer, the outermost conductor layer is circularly compressed as a whole, and at least one of the at least one inner conductor layer is not circularly compressed, a space factor of the stranded conductor is 75 to 86%, and a space factor of the outermost conductor layer is 90% or more. a stranded conductor including a plurality of wires; an inner semiconducting layer covering the stranded conductor; and an insulating layer covering the inner semiconducting layer, wherein the stranded conductor comprises a plurality of conductor layers (11, 12) formed by arranging a plurality of wires in a circumferential direction of a center wire, the plurality of conductor layers (11, 12) comprise: an outermost conductor layer, and at least one inner conductor layer inside the outermost conductor layer, the outermost conductor layer is circularly compressed as a whole, and at least one of the at least one inner conductor layer is not circularly compressed, a space factor of the stranded conductor is 75 to 86%, and a space factor of the outermost conductor layer is 90% or more. an outermost conductor layer, and at least one inner conductor layer inside the outermost conductor layer, the outermost conductor layer is circularly compressed as a whole, and at least one of the at least one inner conductor layer is not circularly compressed, a space factor of the stranded conductor is 75 to 86%, and a space factor of the outermost conductor layer is 90% or more.
A key for a rotary cylinder lock, comprising a key grip and a key shank which adjoins the key grip and extends along a longitudinal axis, wherein the key shank comprises, on the outer side thereof, control recesses, in particular control bores, for positioning tumblers on the rotary cylinder lock, and at least one control element arranged movably in the key shank, which control element has a control surface cooperating with a tumbler of the rotary cylinder lock, wherein the key shank, in the region of the control element, has a tapered cross section which is tapered in relation to the cross section with the control recesses,, characterized in that the control element comprises a bolt arranged in a bore in the key, and a spring element, in particular a compression spring, which spring element subjects the bolt to a force which presses the control element outward, as seen from the key shank, wherein the bolt has said control surface and in that the bolt is provided with a control edge in the region of the control surface, which control edge runs at an angle to the longitudinal axis.
Method for producing a gaseous flow having a hydrogen concentration equal to or greater than 99.9% by means of a pressure modulation adsorption unit using at least one adsorber comprising an adsorbent or a group of adsorbents from a main gaseous stream comprising at least 70% molar hydrogen, characterised in that, in this main gaseous stream, upstream of the PSA, a secondary stream is introduced: - comprising constituents that are sufficiently adsorbable on the adsorbent to displace the hydrogen contained in the adsorbent but not more adsorbable vis-à-vis the adsorbent materials used in the PSA than the impurities of the main gaseous mixture, - representing less than 20% of the molar flow of the main gaseous stream, and - the hydrogen content of which is less than 25% molar. - comprising constituents that are sufficiently adsorbable on the adsorbent to displace the hydrogen contained in the adsorbent but not more adsorbable vis-à-vis the adsorbent materials used in the PSA than the impurities of the main gaseous mixture, - representing less than 20% of the molar flow of the main gaseous stream, and - the hydrogen content of which is less than 25% molar.
A probe (200; 300; 300') for subdural implantation into the human brain (115, 116), the probe (200; 300; 300') comprising a plurality of sensing electrodes (205; 305), a coil (202; 302) for receiving power via inductive coupling, signal processing circuitry (203; 303) coupled to the sensing electrodes (205; 305), means for wirelessly transmitting data-carrying signals, and a head (200a; 300a) in which the coil (202; 302) is located; the probe (200; 300; 300') characterised by being of drawing-pin-like form, having either a rigid shank on which the sensing electrodes are located, or a non-rigid shank made up of a plurality of flexible and/or soft insulated wires, each wire being connected to a respective sensing electrode; wherein the sensing electrodes (205; 305) are a plurality of discrete independent sensing electrodes (205; 305); and wherein the plurality of discrete independent sensing electrodes (205; 305) are located at different depth positions along the shank (200b; 300b). the probe (200; 300; 300') characterised by being of drawing-pin-like form, having either a rigid shank on which the sensing electrodes are located, or a non-rigid shank made up of a plurality of flexible and/or soft insulated wires, each wire being connected to a respective sensing electrode; a rigid shank on which the sensing electrodes are located, or a non-rigid shank made up of a plurality of flexible and/or soft insulated wires, each wire being connected to a respective sensing electrode; wherein the sensing electrodes (205; 305) are a plurality of discrete independent sensing electrodes (205; 305); and wherein the plurality of discrete independent sensing electrodes (205; 305) are located at different depth positions along the shank (200b; 300b).
Production plant for workpieces (2, 2'), in particular vehicle body components, wherein the production plant has a supply station for workpieces (2, 2') and at least one automatic production device, which has at least one program-controlled production means (28, 29) and a processing area, and the production plant has at least two load-receiving means, which are different from one another and each have a type identification, wherein the load-receiving means of different types (A, B, C, D) are adapted to different workpieces (2, 2'), wherein the production device also has: - a processing area, which is designed for sequentially receiving at least two load-receiving means which are different from one another, - a recording device, which is designed to record a type identification of one of the load-receiving means, - a control device, which is set up to determine the type (A, B, C, D) of the load-receiving means on the basis of the type identification recorded by the recording device and to select and execute a control program for the at least one production means (28, 29) from a multiplicity of control programs on the basis of the type (A, B, C, D) determined, - wherein a production means is designed for processing a workpiece (2, 2'), characterized in that, - at the processing area there is a production means (28, 29), which is designed for holding a workpiece (2, 2') in a suspended state during the processing process and for transferring the workpiece (2, 2') to another load-receiving means of a same or different type (A, B, C, D) and in that - the production means (28, 29) are designed as industrial robots. - a processing area, which is designed for sequentially receiving at least two load-receiving means which are different from one another, - a recording device, which is designed to record a type identification of one of the load-receiving means, - a control device, which is set up to determine the type (A, B, C, D) of the load-receiving means on the basis of the type identification recorded by the recording device and to select and execute a control program for the at least one production means (28, 29) from a multiplicity of control programs on the basis of the type (A, B, C, D) determined, - wherein a production means is designed for processing a workpiece (2, 2'), characterized in that, - at the processing area there is a production means (28, 29), which is designed for holding a workpiece (2, 2') in a suspended state during the processing process and for transferring the workpiece (2, 2') to another load-receiving means of a same or different type (A, B, C, D) and in that - the production means (28, 29) are designed as industrial robots.
A compound of formula, wherein: Z = cyclopentyl; R' = -CH 3, CHF 2, X = Y = -CO; -C=O(CH 2), -CH -CH 2, -CH 2 -C=O, -CH 2 -CH 2 -C=O; -CH 2 -CH -CH 2, -CH 2 -CH(OCOR 1)-CH 2; NR 2 = R 1 = C 1 -C 3 alkyl, preferably CH 3; and enantiomers, diastereoisomers and pharmaceutically acceptable salts thereof. Z = cyclopentyl; R' = -CH 3, CHF 2, X = Y = -CO; -C=O(CH 2), -CH -CH 2, -CH 2 -C=O, -CH 2 -CH 2 -C=O; -CH 2 -CH -CH 2, -CH 2 -CH(OCOR 1)-CH 2; NR 2 = R 1 = C 1 -C 3 alkyl, preferably CH 3;
A narrow-passage assistance system in a motor vehicle comprising at least one electronic control unit which, depending on the signals of various sensors for sensing lateral obstacles, identifies a narrow passage in the form of the presence of two objects (D/H, S/H, S/W) constricting the ego-vehicle on both sides and controls a transverse positioning of the ego-vehicle between the objects by means of at least one transverse actuator, the control unit including a transverse guidance module such that a distinction is drawn between dynamic and static objects, and, when a static object (S/H, S/W) is present on one side and a dynamic object (D/H) is present on the other side of the ego-vehicle, a transverse positioning of the ego-vehicle closer to the static object (S/H, S/W) can be performed, characterised in that the transverse guidance module is additionally configured such that a distinction is drawn between soft and hard objects, and in that, when a hard object (S/H, D/H) is present on one side and a soft object (S/W) is present on the other side, a transverse positioning of the ego-vehicle closer to the soft object (S/W) can be performed.
A treatment planning system for generating patient-specific treatment margins, said system comprising: one or more processors programmed to: receive a radiation treatment plan for irradiating a target over the course of one or more treatment fractions, said RTP including one or more treatment margins around the target and a planned dose distribution to be delivered to the target; receive motion data for at least one of the treatment fractions of the RTP; calculate a motion-compensated dose distribution for the target using the motion data to adjust the planned dose distribution based on the received motion data; compare the motion-compensated dose distribution to the planned dose distribution, adjust the treatment margins based on dosimetric differences between the motion-compensated dose distribution and the planned dose distribution, wherein the adjusting by the one or more processors includes: identifying cold spots and/or hot spots between the motion-compensated dose distribution and the planned dose distribution; in response to identifying a cold spot, increasing at least one of the treatment margins nearest the cold spot; in response to identifying a hot spot, decreasing at least one of the treatment margins nearest the hot spot; and, in response to negligible dose differences between the motion-compensated dose distribution and the planned dose distribution, decreasing at least one of the treatment margins. receive a radiation treatment plan for irradiating a target over the course of one or more treatment fractions, said RTP including one or more treatment margins around the target and a planned dose distribution to be delivered to the target; receive motion data for at least one of the treatment fractions of the RTP; calculate a motion-compensated dose distribution for the target using the motion data to adjust the planned dose distribution based on the received motion data; compare the motion-compensated dose distribution to the planned dose distribution, adjust the treatment margins based on dosimetric differences between the motion-compensated dose distribution and the planned dose distribution, identifying cold spots and/or hot spots between the motion-compensated dose distribution and the planned dose distribution; in response to identifying a cold spot, increasing at least one of the treatment margins nearest the cold spot; in response to identifying a hot spot, decreasing at least one of the treatment margins nearest the hot spot; and, in response to negligible dose differences between the motion-compensated dose distribution and the planned dose distribution, decreasing at least one of the treatment margins.
Facility for dosing and/or mixing bulk material comprising a. at least one dosing station with a mobile dosing unit and with a storage container, b. a mobile mixing container, c. a weighing unit for the mixing container, wherein the mobile dosing unit comprises d. a docking element for docking the storage container to the mobile dosing unit, e. a dosing element connected to the docking element for dosed discharge of bulk material into the mixing container, characterized in that - the facility has a plurality of dosing stations which are assigned to a mixing container, - the mobile dosing unit comprises a framework with a support surface for placing the dosing unit and with an installation surface, - the storage container is placed on the installation surface of the mobile dosing unit, - the storage container has a frame-like base framework with which the storage container can be reliably arranged on the installation surface of the framework of the mobile dosing unit, - the docking element is attached to the framework. a. at least one dosing station with a mobile dosing unit and with a storage container, b. a mobile mixing container, c. a weighing unit for the mixing container, wherein the mobile dosing unit comprises d. a docking element for docking the storage container to the mobile dosing unit, e. a dosing element connected to the docking element for dosed discharge of bulk material into the mixing container, - the facility has a plurality of dosing stations which are assigned to a mixing container, - the mobile dosing unit comprises a framework with a support surface for placing the dosing unit and with an installation surface, - the storage container is placed on the installation surface of the mobile dosing unit, - the storage container has a frame-like base framework with which the storage container can be reliably arranged on the installation surface of the framework of the mobile dosing unit, - the docking element is attached to the framework.
A method for manufacturing multiwalled pipes, wherein a steel band forms a steel base layer of a metal band, wherein a nickel base layer is applied to one side of the steel base layer via electroplating, wherein at least one braze base layer is applied to the one nickel base layer or one of the two or both nickel base layers, wherein the multiwalled pipes are formed out of the metal band or out of sections of the metal band via rolling, wherein the walls of the pipes are brazed via heating, characterized in that the thickness of the nickel base layer measures 40 nm to 800 nm.
A means of transport, in particular a pedelec, that can be simultaneously driven electromotively and bv human muscular power, with a drive unit, said drive unit comprising - an input shaft for transmitting drive energy generated from human muscular power, - an output shaft for delivering drive energy to a travel unit, - a harmonic drive transmission arranged around a rotation axis and having a wave generator, a flexspline and a ring gear, - an electric drive motor arranged around the rotation axis and having a stator and a rotor, wherein drive energy of the electric drive motor can be transmitted to the output shaft via the harmonic drive transmission, wherein the flexspline is configured as a sleeve extending in the direction of the rotation axis, which is connected on one axial side to a rotary bearing and toward the other axial side has an engagement region for the wave generator, wherein a sleeve cavity is provided between the rotary bearing and the wave generator, as seen in the direction of the rotation axis, characterized in that the electric drive motor is arranged in an axial direction of the rotation axis at least partially, preferably completely, in the sleeve cavity of the flexspline of the harmonic drive transmission, in particular with respect to the axial extent of its rotor and/or stator along the rotation axis. - an input shaft for transmitting drive energy generated from human muscular power, - an output shaft for delivering drive energy to a travel unit, - a harmonic drive transmission arranged around a rotation axis and having a wave generator, a flexspline and a ring gear, - an electric drive motor arranged around the rotation axis and having a stator and a rotor, wherein drive energy of the electric drive motor can be transmitted to the output shaft via the harmonic drive transmission, wherein the flexspline is configured as a sleeve extending in the direction of the rotation axis, which is connected on one axial side to a rotary bearing and toward the other axial side has an engagement region for the wave generator, wherein a sleeve cavity is provided between the rotary bearing and the wave generator, as seen in the direction of the rotation axis, characterized in that the electric drive motor is arranged in an axial direction of the rotation axis at least partially, preferably completely, in the sleeve cavity of the flexspline of the harmonic drive transmission, in particular with respect to the axial extent of its rotor and/or stator along the rotation axis.
A process for producing a methane-containing gas mixture comprising the steps of: (i) passing a first feed gas mixture comprising hydrogen and carbon dioxide through a bed of methanation catalyst to react a portion of the hydrogen with at least a portion of the carbon dioxide and form a methane-containing gas mixture containing residual hydrogen, (ii) adding an oxygen-containing gas to the methane-containing gas mixture containing residual hydrogen to form a second feed gas mixture, and (iii) passing the second feed gas mixture through a bed of a selective oxidation catalyst at an inlet temperature in the range 150 to 350°C to selectively react the residual hydrogen and oxygen to form water and a hydrogen depleted methane-containing gas mixture, wherein the temperature of the methane-containing gas mixture containing residual hydrogen is adjusted before mixing it with the oxygen containing gas. (i) passing a first feed gas mixture comprising hydrogen and carbon dioxide through a bed of methanation catalyst to react a portion of the hydrogen with at least a portion of the carbon dioxide and form a methane-containing gas mixture containing residual hydrogen, (ii) adding an oxygen-containing gas to the methane-containing gas mixture containing residual hydrogen to form a second feed gas mixture, and (iii) passing the second feed gas mixture through a bed of a selective oxidation catalyst at an inlet temperature in the range 150 to 350°C to selectively react the residual hydrogen and oxygen to form water and a hydrogen depleted methane-containing gas mixture,
A refrigerator comprising: a cabinet; a compartment for storing food within the cabinet; a door configured to seal the compartment; a refrigeration component disposed within the cabinet; and a wall panel within the cabinet, wherein the wall panel extends from a lower end of the compartment to an upper end of the compartment, wherein the wall panel separates the compartment from the refrigeration component, wherein the wall panel comprises a three-dimensional molded surface, wherein the three-dimensional molded surface comprises a three-dimensional pattern extending from a first side end of the wall panel to a second side end of the wall panel, wherein the wall panel includes a compartment facing side and a cabinet facing side, wherein the compartment facing side exhibits a pattern peak, jutting outward from the cabinet facing side, and a pattern valley and wherein an interior surface of the cabinet comprises a back surface and a pair of side surfaces, characterised in that the side surfaces comprise a reflective material. a cabinet; a compartment for storing food within the cabinet; a door configured to seal the compartment; a refrigeration component disposed within the cabinet; and a wall panel within the cabinet, wherein the wall panel extends from a lower end of the compartment to an upper end of the compartment, wherein the wall panel separates the compartment from the refrigeration component, wherein the wall panel comprises a three-dimensional molded surface, wherein the three-dimensional molded surface comprises a three-dimensional pattern extending from a first side end of the wall panel to a second side end of the wall panel, wherein the wall panel includes a compartment facing side and a cabinet facing side, wherein the compartment facing side exhibits a pattern peak, jutting outward from the cabinet facing side, and a pattern valley and wherein an interior surface of the cabinet comprises a back surface and a pair of side surfaces, characterised in that the side surfaces comprise a reflective material.
Laser-markable and/or laser-weldable polymers, characterised in that they comprise, as absorber, at least one copper-doped zinc sulfide, where the copper content in the zinc sulfide is 0.5 - 15 mol%, based on the sum of copper sulfide and zinc sulfide.
Method for creating a surface structure on a gear wheel using a honing process, wherein at least one honing tool is moved along the gear wheel in a first direction using a first axis cross angle, characterised in that, subsequently, the at least one honing tool is moved along the gear wheel in a second direction, opposite to the first direction, using a second axis cross angle, wherein the first axis cross angle and the second axis cross angle are selected such that the first grooves created when moving the at least one honing tool in the first direction on a surface of the gear wheel intersect, at least partially, at a predetermined angle, with the second grooves created when moving the at least one honing tool in the second direction on the surface of the gear wheel.