mhurhangee/ep-ind-claims huggingface dataset:
An intermediate insulating product adapted to form non-planar, derivative insulated ductwork, wherein the intermediate insulating product comprises a planar insulating layer having a resulting innermost surface in to which is formed a plurality of parallel channels; wherein the channels comprise cross-sections with tapered sides; further comprising a vapour proof layer applied to the resulting innermost surface such that the vapour proof layer bridges the plurality of parallel channels; and wherein, with subsequent mechanical manipulation, the intermediate insulating product can be bent in regions adjacent the bottom of the channels, thereby causing the channels to substantially close to form non-planar, derivative insulated ductwork having an inner throughbore and the vapour proof layer forms a vapour proof inner lining to the derivative insulated ductwork; the vapour proof layer comprising a sealing means to substantially seal the inner throughbore with respect to the outside of the derivative insulated ductwork, characterised in that the sealing means comprises a flap member provided at one end of the vapour proof layer and which is arranged to overlap the other end of the vapour proof layer when the intermediate insulating product has been bent to form the non-planar, derivative insulated ductwork such that the vapour proof layer extends greater than 360 degrees around the inner throughbore.
A rotor shaft for a spinning rotor of an open-end spinning device, supported in a magnetic bearing arrangement in a non-contacting manner and driven by means of a single electric motor drive, the rotor shaft comprising a multipart structure having at least one center piece and at least two outer pieces enclosing the center piece, the center piece and the outer pieces being disposed one after the other in the axial direction of the rotor shaft, and the center piece comprising a cavity in which a permanent magnet interacting with a stator of the single electric motor drive is disposed, characterized in that the rotor shaft comprises an additional connector for connecting the rotor shaft to a rotor cup, wherein the connector is implemented having a tubular shape and comprises a first connecting region by means of which said connector is connected to a first outer piece of the at least two outer pieces and a second connecting region for connecting to the rotor cup.
A method for determining placement positions for transducer arrays (504; 601, 602, 603, 604) on a subject's body for applying tumor treating fields, comprising: determining, based on two-dimensional image data associated with a portion of a subject's body, one or more landmarks (408, 409, 410) and one or more skin surface conditions (402, 403); determining a representation of the one or more landmarks (408, 409, 410) and the one or more skin surface conditions (402, 403) in three-dimensional space based on the one or more landmarks (408, 409, 410) and the one or more skin surface conditions (402, 403) determined from the 2D image data; determining, based on the representation of the one or more landmarks (408, 409, 410) and the one or more skin surface conditions (402, 403) in the 3D space, a plurality of placement positions for one or more of the transducer arrays (504; 601, 602, 603, 604) on the subject's body for applying tumor treating fields; determining, based on the one or more skin surface conditions (402, 403) in the 3D space, one or more recommended placement positions of the plurality of placement positions for the one or more of the transducer arrays (504; 601, 602, 603, 604); and outputting an indication of the one or more recommended placement positions for the one or more of the transducer arrays (504; 601, 602, 603, 604). determining, based on two-dimensional image data associated with a portion of a subject's body, one or more landmarks (408, 409, 410) and one or more skin surface conditions (402, 403); determining a representation of the one or more landmarks (408, 409, 410) and the one or more skin surface conditions (402, 403) in three-dimensional space based on the one or more landmarks (408, 409, 410) and the one or more skin surface conditions (402, 403) determined from the 2D image data; determining, based on the representation of the one or more landmarks (408, 409, 410) and the one or more skin surface conditions (402, 403) in the 3D space, a plurality of placement positions for one or more of the transducer arrays (504; 601, 602, 603, 604) on the subject's body for applying tumor treating fields; determining, based on the one or more skin surface conditions (402, 403) in the 3D space, one or more recommended placement positions of the plurality of placement positions for the one or more of the transducer arrays (504; 601, 602, 603, 604); and outputting an indication of the one or more recommended placement positions for the one or more of the transducer arrays (504; 601, 602, 603, 604).
A method for collecting a laboratory sample from a batch of harvested material by means of an agricultural harvesting machine with at least one working assembly for picking up a field crop which has been cut down as harvested material and/or for processing the harvested material, wherein, during the operation of the agricultural harvesting machine, the harvested material is transported through the agricultural harvesting machine in a harvested material flow along a harvested material transport path, wherein the agricultural harvesting machine has an automatic sample extraction device, the sample extraction device has a coarse dividing device disposed on the harvested material transport path, a comminuting device and a fine dividing device, the coarse dividing device extracts a raw sample from the harvested material flow of the batch, the comminuting device comminutes the raw sample and the fine dividing device extracts the laboratory sample from the comminuted raw sample for temporally decoupled analysis, characterized in that a fraction by weight and/or fraction by volume of the laboratory sample with respect to the raw sample can be adjusted by means of the fine dividing device. wherein the agricultural harvesting machine has an automatic sample extraction device, the sample extraction device has a coarse dividing device disposed on the harvested material transport path, a comminuting device and a fine dividing device, the coarse dividing device extracts a raw sample from the harvested material flow of the batch, the comminuting device comminutes the raw sample and the fine dividing device extracts the laboratory sample from the comminuted raw sample for temporally decoupled analysis, characterized in that a fraction by weight and/or fraction by volume of the laboratory sample with respect to the raw sample can be adjusted by means of the fine dividing device.
An optoelectronic device comprising: a substrate having a three-dimensional array of peaks and troughs; each peak having a first and a second face (18a, 18b); the troughs at least partially filled with a first semiconductor material; and the first face of each peak coated with a conductor material and the second face of each peak coated with a second semiconductor material wherein the first semiconductor material in the troughs, second semiconductor material on the second face and conductor material on at least the first face of each peak are all in electrical communication, such that an electrical current can flow between the first and second semiconductor materials and the conductor material. a substrate having a three-dimensional array of peaks and troughs; each peak having a first and a second face (18a, 18b); the troughs at least partially filled with a first semiconductor material; and the first face of each peak coated with a conductor material and the second face of each peak coated with a second semiconductor material wherein the first semiconductor material in the troughs, second semiconductor material on the second face and conductor material on at least the first face of each peak are all in electrical communication, such that an electrical current can flow between the first and second semiconductor materials and the conductor material.
Shaft antenna system for mobile communication, comprising the following features: - an antenna housing, into which at least one antenna is or can be introduced; - a support frame comprising an insertion opening and a circumferential wall, which defines a receiving space which is accessible from the insertion opening and in which the antenna housing is arranged; - a cover plate assembly, which closes the insertion opening, the cover plate assembly being supported at least indirectly on the support frame in the edge region thereof, such that a lower face of the cover plate assembly covers an upper face of the antenna housing; - the antenna housing is supported at least indirectly on the support frame by means of at least one force storing device; - the at least one force storing device comprises at least one foam module, which has elastic, resilient and damping properties, meaning that the upper face of the antenna housing is kept pressed against the lower face of the cover plate assembly; characterized by the following features: - a region of the upper face of the antenna housing comprises a plurality of raised portions projecting towards the cover plate assembly, the antenna housing coming into contact with a lower face of the cover plate assembly solely via the raised portions, wherein antennas of the antenna housing are arranged or arrangeable in these raised portions, as a result of which they are arranged or arrangeable particularly close to an upper face of the shaft antenna system. - an antenna housing, into which at least one antenna is or can be introduced; - a support frame comprising an insertion opening and a circumferential wall, which defines a receiving space which is accessible from the insertion opening and in which the antenna housing is arranged; - a cover plate assembly, which closes the insertion opening, the cover plate assembly being supported at least indirectly on the support frame in the edge region thereof, such that a lower face of the cover plate assembly covers an upper face of the antenna housing; - the antenna housing is supported at least indirectly on the support frame by means of at least one force storing device; - the at least one force storing device comprises at least one foam module, which has elastic, resilient and damping properties, meaning that the upper face of the antenna housing is kept pressed against the lower face of the cover plate assembly; - a region of the upper face of the antenna housing comprises a plurality of raised portions projecting towards the cover plate assembly, the antenna housing coming into contact with a lower face of the cover plate assembly solely via the raised portions, wherein antennas of the antenna housing are arranged or arrangeable in these raised portions, as a result of which they are arranged or arrangeable particularly close to an upper face of the shaft antenna system.
A method for manufacturing a core composite (1, 20, 26) having a folded honeycomb core (2, 21, 29) provided on both sides with cover layers (3, 4, 22, 23, 27, 28), wherein the folded honeycomb core (2, 21, 29) comprises a plurality of drainage-enabling channels extending parallel to the cover layers (3, 4, 22, 23, 27, 28), with the steps: a) folding apex lines of the folded honeycomb core (2, 21, 29) so that substantially horizontally extending flanges are formed at the apex lines of the folded honeycomb core, b) introducing a core filler material (16, 17) at least in some areas into the at least one folded honeycomb core (2, 21, 29), c) arranging a lower and an upper dry cover layer (3, 4, 22, 23, 27, 28) on the folded honeycomb core (2, 21, 29), d) mechanically connecting the cover layers (3, 4, 22, 23, 27, 28) at least in some areas to the flanges of the folded honeycomb core (2, 21, 29), e) infusing the cover layers (3, 4, 22, 23, 27, 28) with a curable plastic material, f) hardening the entire core composite (1, 20, 26) under the application of pressure and/or temperature, and g) removing the core filler material (16, 17). a) folding apex lines of the folded honeycomb core (2, 21, 29) so that substantially horizontally extending flanges are formed at the apex lines of the folded honeycomb core, b) introducing a core filler material (16, 17) at least in some areas into the at least one folded honeycomb core (2, 21, 29), c) arranging a lower and an upper dry cover layer (3, 4, 22, 23, 27, 28) on the folded honeycomb core (2, 21, 29), d) mechanically connecting the cover layers (3, 4, 22, 23, 27, 28) at least in some areas to the flanges of the folded honeycomb core (2, 21, 29), e) infusing the cover layers (3, 4, 22, 23, 27, 28) with a curable plastic material, f) hardening the entire core composite (1, 20, 26) under the application of pressure and/or temperature, and g) removing the core filler material (16, 17).
Domestic appliance, in particular domestic oven, comprising: - a treatment chamber; - a door for selectively opening or closing the treatment chamber, wherein the door comprises at least one inner glass panel and one outer glass panel for allowing insight into the interior of the treatment chamber from the exterior; - at least one optical monitoring device for optically monitoring at least a part of the interior of the treatment chamber through the inner panel and the outer panel; - at least one optical shade element for at least partially preventing irritating light from reaching an optical sensor of the optical monitoring device; characterized in that the optical monitoring device is arranged on a side of the outer panel opposite to the treatment chamber side of the outer panel and in a distance to the outer panel, and wherein the optical shade element is arranged in an intermediate space between inner panel and outer panel such that the optical shade element is separated from the optical monitoring device by the outer panel and circumferentially encloses at least partially the optical path of the optical monitoring device extending from the interior of the treatment chamber to the sensor of the optical monitoring device through the inner panel, the outer panel and the intermediate space between inner panel and outer panel. - a treatment chamber; - a door for selectively opening or closing the treatment chamber, wherein the door comprises at least one inner glass panel and one outer glass panel for allowing insight into the interior of the treatment chamber from the exterior; - at least one optical monitoring device for optically monitoring at least a part of the interior of the treatment chamber through the inner panel and the outer panel; - at least one optical shade element for at least partially preventing irritating light from reaching an optical sensor of the optical monitoring device;
A rare earth magnet molding, comprising: rare earth magnet particles; and an insulating phase present among the rare earth magnet particles, characterized in that segregation regions in which at least one element selected from the group consisting of Dy, Tb, Pr and Ho is segregated are distributed in the rare earth magnet particles. rare earth magnet particles; and an insulating phase present among the rare earth magnet particles, characterized in that segregation regions in which at least one element selected from the group consisting of Dy, Tb, Pr and Ho is segregated are distributed in the rare earth magnet particles.
Thread guiding device for guiding a textile thread from a textile thread store of a textile machine under tension to a working region of the textile machine, comprising: - a deflection element which can be brought into contact with a textile thread emanating from the textile thread store and via which the textile thread can be deflected into the working region, wherein the deflection element is mounted movably relative to the textile thread store in a displacement range between a first and a second end position; and - a tensioning device (13a; 13b; 13c; 13d; 13e; 13f) which mounts the deflection element and is configured to exert a tensioning force on a textile thread in contact with the deflection element and for this purpose comprises a force element (30a; 30b; 30c; 30d; 30e) which can be deformed via a displacement of the deflection element, wherein the force element (30a; 30b; 30c; 30d; 30e) comprises at least one first elastic spring element which is deformed via a displacement, dependent on the displacement of the deflection element, of a displacement point of the first spring element along a displacement direction, wherein the first spring element is a spring element with a degressive force-deformation relationship or a constant-force spring, and wherein a ratio of a deformation force, averaged over the displacement range of the deflection element, of the force element (30a; 30b; 30c; 30d; 30e) to the deformation force of the force element (30a; 30b; 30c; 30d; 30e) in the first or in the second end position of the deflection element is 0.8 to 1.2. - a deflection element which can be brought into contact with a textile thread emanating from the textile thread store and via which the textile thread can be deflected into the working region, wherein the deflection element is mounted movably relative to the textile thread store in a displacement range between a first and a second end position; and - a tensioning device (13a; 13b; 13c; 13d; 13e; 13f) which mounts the deflection element and is configured to exert a tensioning force on a textile thread in contact with the deflection element and for this purpose comprises a force element (30a; 30b; 30c; 30d; 30e) which can be deformed via a displacement of the deflection element, wherein the force element (30a; 30b; 30c; 30d; 30e) comprises at least one first elastic spring element which is deformed via a displacement, dependent on the displacement of the deflection element, of a displacement point of the first spring element along a displacement direction, wherein the first spring element is a spring element with a degressive force-deformation relationship or a constant-force spring, and wherein a ratio of a deformation force, averaged over the displacement range of the deflection element, of the force element (30a; 30b; 30c; 30d; 30e) to the deformation force of the force element (30a; 30b; 30c; 30d; 30e) in the first or in the second end position of the deflection element is 0.8 to 1.2.
A work vehicle comprising a pair of right and left vehicle frames that extend in a vehicle longitudinal direction so that plate surface thereof face each other in a state of being substantially aligned in the vertical direction, a front axle unit that is supported by the pair of vehicle frames so as to be located below the pair of vehicle frames and be along a vehicle width direction in a state where two ends thereof are positioned outward of the pair of vehicle frames in the vehicle width direction, a pair of right and left front wheels that are supported by both ends of the front axle unit in a steerable manner, an engine unit that is supported by the pair of vehicle frames, a flywheel unit that is connected to a rear end surface of the engine unit, and a transmission that is disposed backward at a distance from the flywheel unit and operatively receives rotational power from the engine unit through the flywheel unit, the pair of vehicle frames including a pair of right and left front frames that support the front axle unit, and a pair of right and left main frames that have rear ends directly or indirectly connected to side surfaces of a transmission case of the transmission, respectively, an outer surface of a rear end of each of the pair of front frames is connected to an inner surface of a front end of the corresponding one of the main frames with a spacer being interposed therebetween, characterised in that the engine unit includes an engine main body, an output shaft that extends backward from the engine main body, and a mount flange that extends radially outward from a rear end of the engine main body, the flywheel unit including a flywheel main body that is connected with the output shaft, and a flywheel cover that is connected to the mount flange so as to surround the flywheel main body, the work vehicle being characterized in that, the pair of front frames are arranged such that at least upper regions in rear end surfaces thereof are located forward of the mount flange, and the engine unit and the flywheel unit are supported by the pair of vehicle frames such that at least lower portions thereof are overlapped with the pair of vehicle frames in a side view and the mount flange is overlapped with the upper regions in the rear end surfaces of the front frames in a front view.
A method performed in a device coupled to a multi-wire interface, comprising: receiving on the multi-wire interface (102, 103) a first sequence of signaling states within a first voltage range during a low-power communication mode to cause the device to transition to a high-speed communication mode; receiving on the multi-wire interface first high-speed data within a second, smaller voltage range while operating in the high-speed communication mode before returning to the low-power communication mode for a first time; receiving on the multi-wire interface a second sequence of only two signaling states within the first voltage range during the low-power communication mode to signal a turnaround command (506, 507) without requiring any additional signaling state within the first voltage range, where the turnaround command enables the device to transmit data from the device over the multi-wire interface; transmitting on the multi-wire interface the first sequence of signaling states within the first voltage range to cause the device to transition to the high-speed communication mode for transmitting data from the device over the multi-wire interface; and transmitting on the multi-wire interface second high-speed data within the second, smaller voltage range while operating in the high-speed communication mode before returning the multi-wire interface to the low-power communication mode for a second time, wherein each of the signaling states is defined by a MIPI D-PHY standard. receiving on the multi-wire interface (102, 103) a first sequence of signaling states within a first voltage range during a low-power communication mode to cause the device to transition to a high-speed communication mode; receiving on the multi-wire interface first high-speed data within a second, smaller voltage range while operating in the high-speed communication mode before returning to the low-power communication mode for a first time; receiving on the multi-wire interface a second sequence of only two signaling states within the first voltage range during the low-power communication mode to signal a turnaround command (506, 507) without requiring any additional signaling state within the first voltage range, where the turnaround command enables the device to transmit data from the device over the multi-wire interface; transmitting on the multi-wire interface the first sequence of signaling states within the first voltage range to cause the device to transition to the high-speed communication mode for transmitting data from the device over the multi-wire interface; and transmitting on the multi-wire interface second high-speed data within the second, smaller voltage range while operating in the high-speed communication mode before returning the multi-wire interface to the low-power communication mode for a second time, wherein each of the signaling states is defined by a MIPI D-PHY standard.