mhurhangee/ep-ind-claims huggingface dataset:
A superconducting coil, comprising: a first pancake coil and a second pancake coil that are formed by winding a superconducting wire, are stacked in a thickness direction, and are adjacent to each other; a cooling substrate that is provided in contact with an end surface of the first pancake coil, the cooling substrate being interposed between the first pancake coil and the second pancake coil, the cooling substrate being formed of a plurality of cooling plates, the cooling plates overlapping each other, the cooling plates being separable from each other, a bonding element that bonds the first pancake coil and one of the cooling plates to each other, and a bonding element that bonds the second pancake coil and one of the cooling plates to each other, wherein an upper cooling plate of the superconducting coil is disposed on an uppermost surface of the first pancake coil, one of the cooling plates of the cooling substrate is disposed on a lowermost surface of the first pancake coil, one of the cooling plates of the cooling substrate is disposed on an uppermost surface of the second pancake coil, a lower cooling plate of the superconducting coil is disposed on a lowermost surface of the second pancake coil, each of the cooling plates of the cooling substrate is a plate formed of a metal material, the cooling plates of the cooling substrate are stacked such that the cooling plates of the cooling substrate surface-wide contact with each other, and the first pancake coil and the second pancake coil are separable from each other by separation between the cooling plates of the cooling substrate. a first pancake coil and a second pancake coil that are formed by winding a superconducting wire, are stacked in a thickness direction, and are adjacent to each other; a cooling substrate that is provided in contact with an end surface of the first pancake coil, the cooling substrate being interposed between the first pancake coil and the second pancake coil, the cooling substrate being formed of a plurality of cooling plates, the cooling plates overlapping each other, the cooling plates being separable from each other, a bonding element that bonds the first pancake coil and one of the cooling plates to each other, and a bonding element that bonds the second pancake coil and one of the cooling plates to each other, wherein an upper cooling plate of the superconducting coil is disposed on an uppermost surface of the first pancake coil, one of the cooling plates of the cooling substrate is disposed on a lowermost surface of the first pancake coil, one of the cooling plates of the cooling substrate is disposed on an uppermost surface of the second pancake coil, a lower cooling plate of the superconducting coil is disposed on a lowermost surface of the second pancake coil, each of the cooling plates of the cooling substrate is a plate formed of a metal material, the cooling plates of the cooling substrate are stacked such that the cooling plates of the cooling substrate surface-wide contact with each other, and the first pancake coil and the second pancake coil are separable from each other by separation between the cooling plates of the cooling substrate.
A bicycle comprising: a frame assembly having a head tube and a fork having a steerer tube mounted for rotation in the head tube; a first wheel supporting the frame assembly and a second wheel supporting the frame assembly; a component line positioned at least partially in the head tube and between the head tube and the steerer tube; and a protector positioned in the head tube and separating the component line from the steerer tube, characterized in that the protector includes a resilient sheet, wherein the protector is rolled in such a way that a first portion of the resilient sheet at least partially overlaps a second portion of the resilient sheet. a frame assembly having a head tube and a fork having a steerer tube mounted for rotation in the head tube; a first wheel supporting the frame assembly and a second wheel supporting the frame assembly; a component line positioned at least partially in the head tube and between the head tube and the steerer tube; and a protector positioned in the head tube and separating the component line from the steerer tube, characterized in that the protector includes a resilient sheet, wherein the protector is rolled in such a way that a first portion of the resilient sheet at least partially overlaps a second portion of the resilient sheet.
An apparatus, comprising: a non-rotating housing; a rotatable member rotatably supported in the non-rotating housing; and a bearing adapter sleeve disposed externally to the non-rotating housing, the bearing adapter sleeve having an internal upset for limiting longitudinal movement of the non-rotating housing, the bearing adapter sleeve having a retaining ring coupled to a longitudinal end of the bearing adapter sleeve using fasteners to limit longitudinal movement of the non-rotating housing, characterized in that the fasteners have a tensile and/or shear strength selected to break the fasteners at an axial force on the rotating member lower than an axial force required to disconnect a running tool assembly from the rotating member. a non-rotating housing; a rotatable member rotatably supported in the non-rotating housing; and a bearing adapter sleeve disposed externally to the non-rotating housing, the bearing adapter sleeve having an internal upset for limiting longitudinal movement of the non-rotating housing, the bearing adapter sleeve having a retaining ring coupled to a longitudinal end of the bearing adapter sleeve using fasteners to limit longitudinal movement of the non-rotating housing, characterized in that the fasteners have a tensile and/or shear strength selected to break the fasteners at an axial force on the rotating member lower than an axial force required to disconnect a running tool assembly from the rotating member.
An elevator system, comprising: at least one refuge space (7, 8); and at least one sensor; wherein the at least one sensor is configured to: detect weight in the at least one refuge space (7, 8); and produce at least one safety signal indicating the presence of weight in the at least one refuge space (7, 8); wherein the at least one refuge space comprises a refuge space on the top of the elevator car; and characterised in that: the at least one sensor is embedded in or fixed to the underside of the roof of the elevator car. at least one refuge space (7, 8); and at least one sensor; wherein the at least one sensor is configured to: detect weight in the at least one refuge space (7, 8); and produce at least one safety signal indicating the presence of weight in the at least one refuge space (7, 8); detect weight in the at least one refuge space (7, 8); and produce at least one safety signal indicating the presence of weight in the at least one refuge space (7, 8); wherein the at least one refuge space comprises a refuge space on the top of the elevator car; and characterised in that: the at least one sensor is embedded in or fixed to the underside of the roof of the elevator car.
Method for distinguishing between the letter O and the numeral 0 in the font OCR-B by identifying a character comprising a character contour formed by grayscale value distributions, the method comprising: determining a plurality of grayscale value gradients on the basis of the grayscale value distributions; determining a first number of grayscale value gradients of the plurality of grayscale value gradients, which first number of grayscale value gradients extend within a first angle range with respect to a first direction; determining a second number of grayscale value gradients of the plurality of grayscale value gradients, which second number of grayscale value gradients extends within a second angle range with respect to a second direction; and identifying the character on the basis of a relation between the first number of grayscale value gradients and the second number of grayscale value gradients, wherein, in order to identify the character, the first number and the second number are compared so as to obtain the relation. determining a plurality of grayscale value gradients on the basis of the grayscale value distributions; determining a first number of grayscale value gradients of the plurality of grayscale value gradients, which first number of grayscale value gradients extend within a first angle range with respect to a first direction; determining a second number of grayscale value gradients of the plurality of grayscale value gradients, which second number of grayscale value gradients extends within a second angle range with respect to a second direction; and identifying the character on the basis of a relation between the first number of grayscale value gradients and the second number of grayscale value gradients, wherein, in order to identify the character, the first number and the second number are compared so as to obtain the relation.
A washing machine comprising a body, a panel situated on the body, a dispenser disposed on the panel and wherein cleaning agents like detergent and softener are placed and a salt container that provides the softening of the water, characterized by a locking element that provides the dispenser to be moved together with the salt container and taken out of the body when in the first position and provides the dispenser to be taken out of the body by being moved independently from the salt container when in the second position.
An isolated cis-acting element for eukaryotic cells selected from the group consisting of polynucleotides SEQ ID NO: 5, SEQ ID NO: 4, SEQ ID NO: 6, SEQ ID NO: 2, SEQ ID NO: 11, SEQ ID NO: 12, SEQ ID NO: 13, SEQ ID NO: 19, and SEQ ID NO: 20.
An image processing apparatus configured to perform subpixel rendering by using one or more deep neural networks comprising: a memory storing one or more instructions; and a processor configured to execute the one or more instructions stored in the memory to: generate first feature maps (210, 310) by performing convolution operation between a first image and first kernels included in the one or more deep neural networks; generate second feature maps (220, 320) by upscaling the first feature maps; generate third feature maps for each of subpixels, respectively, based on the second feature maps and position information of each of the subpixels arranged in a display; generate a result image for each of the subpixels by performing convolution operation between the respective third feature maps and second kernels included in the one or more deep neural networks; and output a second image based on the result image for each of the subpixels. a memory storing one or more instructions; and a processor configured to execute the one or more instructions stored in the memory to: generate first feature maps (210, 310) by performing convolution operation between a first image and first kernels included in the one or more deep neural networks; generate second feature maps (220, 320) by upscaling the first feature maps; generate third feature maps for each of subpixels, respectively, based on the second feature maps and position information of each of the subpixels arranged in a display; generate a result image for each of the subpixels by performing convolution operation between the respective third feature maps and second kernels included in the one or more deep neural networks; and output a second image based on the result image for each of the subpixels. generate first feature maps (210, 310) by performing convolution operation between a first image and first kernels included in the one or more deep neural networks; generate second feature maps (220, 320) by upscaling the first feature maps; generate third feature maps for each of subpixels, respectively, based on the second feature maps and position information of each of the subpixels arranged in a display; generate a result image for each of the subpixels by performing convolution operation between the respective third feature maps and second kernels included in the one or more deep neural networks; and output a second image based on the result image for each of the subpixels.
An exhaust gas heating unit for an exhaust gas system of an internal combustion engine, comprising at least one electrically conductive heating conductor element, constructed from bent flat strip material with a wave-like structure, wherein: - the at least one heating conductor element is arranged with a meandering form, wherein mutually adjacent heating conductor element length regions arranged in an electrically insulated manner with respect to one another are provided by meandering sections which run next to one another and are connected to one another in transitional regions, or - a plurality of heating conductor elements (22a, 22b, 22c, 22d, 22e, 22f) are provided, which are constructed from bent flat strip material with a wave-like structure and arranged in an electrically insulated manner with respect to one another providing heating conductor element length regions, extending substantially in a straight elongated way and running adjacent to another, characterized in that the heating conductor element length regions which run adjacent to one another are electrically insulated with respect to one another by arranging electrically insulating, flat-strip-type material between them. - the at least one heating conductor element is arranged with a meandering form, wherein mutually adjacent heating conductor element length regions arranged in an electrically insulated manner with respect to one another are provided by meandering sections which run next to one another and are connected to one another in transitional regions, or - a plurality of heating conductor elements (22a, 22b, 22c, 22d, 22e, 22f) are provided, which are constructed from bent flat strip material with a wave-like structure and arranged in an electrically insulated manner with respect to one another providing heating conductor element length regions, extending substantially in a straight elongated way and running adjacent to another,
A network device comprising a receiving unit, a sending unit, and an evaluating unit, wherein - the receiving unit is adapted to receive a trigger signal for preparing a breakout of a plurality of packets, - the evaluating unit is adapted to analyze the plurality of packets received via a bearer service, the plurality of packets comprising at least one packet from a first source and at least one packet from a second source, wherein the sources are defined by a distinct source IP address established by a client device, and wherein - the network device is adapted to forward packets from the first source to a server via the bearer service, and to break out, from the bearer service, packets from the second source and route the packets from the second source to a separate network. - the receiving unit is adapted to receive a trigger signal for preparing a breakout of a plurality of packets, - the evaluating unit is adapted to analyze the plurality of packets received via a bearer service, the plurality of packets comprising at least one packet from a first source and at least one packet from a second source, wherein the sources are defined by a distinct source IP address established by a client device, and wherein - the network device is adapted to forward packets from the first source to a server via the bearer service, and to break out, from the bearer service, packets from the second source and route the packets from the second source to a separate network.
A method, performed by a user equipment, UE, for wireless communication, comprising: identifying (1405; 1505) a default monitoring periodicity for monitoring a control channel for a slot format indicator, SFI; identifying (1410; 1515) a dynamic monitoring periodicity for monitoring the control channel for the SFI based at least in part on a received SFI; monitoring (1415; 1530) the control channel for the SFI based at least in part on the dynamic monitoring periodicity; and wherein the dynamic monitoring periodicity is greater than the default monitoring periodicity. identifying (1405; 1505) a default monitoring periodicity for monitoring a control channel for a slot format indicator, SFI; identifying (1410; 1515) a dynamic monitoring periodicity for monitoring the control channel for the SFI based at least in part on a received SFI; monitoring (1415; 1530) the control channel for the SFI based at least in part on the dynamic monitoring periodicity; and wherein the dynamic monitoring periodicity is greater than the default monitoring periodicity.
Squirrel-cage rotor for rotating electric machines, having tooth tips and squirrel-cage rotor bars made of a bar material, wherein the squirrel-cage rotor bars are inserted in the rotor slots of a lamination stack and provided with groove-shaped bar recesses, characterized in that in the upper bar region, the squirrel-cage rotor bars inserted in a distributed manner in the rotor slots on the lamination stack have slot-like bar recesses of a trough-shaped or v-shaped cross-section, which are approached to the rotor end ring or extend as far as into the rotor end ring, arranged continuously over the whole bar length and the slotted squirrel-cage rotor bars are spread apart in a wedge shape after or at the slot exits, wherein the bar material is deformed toward the outside such that it engages the edges of the tooth tips at the outside of the slot exits.
A computer-implemented method, comprising: determining a similarity between contents presented in a grayscale source image and a color reference image; and determining a color target image corresponding to the grayscale source image based on the similarity by using a deep learning network, comprising: determining, based on the similarity and from the grayscale image, a first set of blocks similar to the color reference image in content and a second set of blocks dissimilar to the color reference image in content, determining a first color for the first set of blocks based on a color of blocks in the color reference image corresponding to the first set of blocks, determining a second color for the second set of blocks independently of the color reference image, and transferring the grayscale source image based on the first and second colors to generate a color target image. determining a similarity between contents presented in a grayscale source image and a color reference image; and determining a color target image corresponding to the grayscale source image based on the similarity by using a deep learning network, comprising: determining, based on the similarity and from the grayscale image, a first set of blocks similar to the color reference image in content and a second set of blocks dissimilar to the color reference image in content, determining a first color for the first set of blocks based on a color of blocks in the color reference image corresponding to the first set of blocks, determining a second color for the second set of blocks independently of the color reference image, and transferring the grayscale source image based on the first and second colors to generate a color target image. determining, based on the similarity and from the grayscale image, a first set of blocks similar to the color reference image in content and a second set of blocks dissimilar to the color reference image in content, determining a first color for the first set of blocks based on a color of blocks in the color reference image corresponding to the first set of blocks, determining a second color for the second set of blocks independently of the color reference image, and transferring the grayscale source image based on the first and second colors to generate a color target image.
Method for producing an electrode unit for a battery cell, comprising the following steps: - substance-to-substance bonding of contact tabs (35, 36) of a plurality of plate-like segments of a first electrode (21, 22) to a band-like first separator layer, - substance-to-substance bonding of a band-like second separator layer to the contact tabs (35, 36) of the segments of the first electrode (21, 22) or to the first separator layer so that a band-like composite element is produced, wherein an active material (41, 42) of the segments of the first electrode (21, 22) is surrounded by the first separator layer and by the second separator layer, - arranging a plurality of plate-like segments of a second electrode (21, 22) on the composite element, wherein the first and the second separator layer (18, 19) are constructed in the form of a band in such a way that the plurality of plate-like segments of the first and the second electrode (21, 22) are arranged at a spacing from one another on at least one of the separator layers (18, 19). - substance-to-substance bonding of contact tabs (35, 36) of a plurality of plate-like segments of a first electrode (21, 22) to a band-like first separator layer, - substance-to-substance bonding of a band-like second separator layer to the contact tabs (35, 36) of the segments of the first electrode (21, 22) or to the first separator layer so that a band-like composite element is produced, wherein an active material (41, 42) of the segments of the first electrode (21, 22) is surrounded by the first separator layer and by the second separator layer, - arranging a plurality of plate-like segments of a second electrode (21, 22) on the composite element, wherein the first and the second separator layer (18, 19) are constructed in the form of a band in such a way that the plurality of plate-like segments of the first and the second electrode (21, 22) are arranged at a spacing from one another on at least one of the separator layers (18, 19).
Method for mangling items of laundry, the items of laundry being moved along a smoothing surface (14, 35) of at least one heatable mangling trough (10, 31) by at least one rotationally drivable mangling roller (11, 32) and thereby dried and smoothed, and the degree of drying of the items of laundry being determined at least after the mangling, characterized in that the degree of drying of the items of laundry is determined by at least one contactless measurement of the temperature on the surface of the respective item of laundry.
A sealing press comprising a pair of isothermally heated dies, the pair including a forward and a reverse die each comprising a sealing surface (404, 405) opposed to each other and adapted to hold therebetween a sample processing device positioned along a sealing plane, wherein the forward and reverse dies are each independently positioned on and controlled by a forward and reverse alignment slider, respectively, the forward and reverse alignment sliders are connected to an actuator which provides thrust for synchronized movement of the forward and reverse dies, wherein each of the forward and reverse alignment sliders are mounted to a forward and reverse caliper arm, respectively, and the forward and reverse caliper arms are each mounted to a mechanical linkage connected to the actuator, wherein the mechanical linkage comprises a lever, a first con rod and a second con rod, wherein the lever comprises a central pivot point and a first and second end, wherein the first con rod is pivotally connected to the first end of the lever and pivotally connected to one end of the reverse caliper arm, wherein the second con rod is pivotally connected to the second end of the lever and pivotally connected to one end of the forward caliper arm, wherein the first and second caliper arms are connected to the forward and reverse alignment sliders, respectively, characterized by the sealing press further comprising an independent forward die control mechanism, the mechanism is connected to the forward die and comprises a forward die driver connected to a supplemental forward die linear slider and an independent forward die controller, wherein the mechanism is configured to independently actuate the forward die from the forward caliper arm, thereby adjusting the contact pressure between the sealing surfaces (404, 405).