mhurhangee/ep-ind-claims huggingface dataset:
A computerized method for a mucosal assessment of a mucosal disease in a Gastrointestinal Tract of a subject, the method comprising automatically: receiving a stream of images, captured endoscopically, of at least a portion of the subject's GIT, wherein the at least a portion of the subject's GIT comprises the small bowel and the colon; parsing at least a portion of the stream of images into four segments corresponding to four regions of substantially equal length of the at least a portion of the subject's GIT, wherein each segment comprises a plurality of images, and corresponds to a respective region of the four regions, and wherein the four regions comprise three regions of the small bowel and a region of the colon; obtaining a set of values for each of said segments, wherein the set of values refers to the pathological involvement of the segment in the mucosal disease and to severity of mucosal manifestation of the mucosal disease in the segment; and based on said set of values for each segment, generating a representation indicating the location and severity of the mucosal manifestation of the mucosal disease in the entirety of the at least portion of the subject's GIT, thereby allowing to assess the condition of the mucosal disease in the at least portion of the subject's GIT. receiving a stream of images, captured endoscopically, of at least a portion of the subject's GIT, wherein the at least a portion of the subject's GIT comprises the small bowel and the colon; parsing at least a portion of the stream of images into four segments corresponding to four regions of substantially equal length of the at least a portion of the subject's GIT, wherein each segment comprises a plurality of images, and corresponds to a respective region of the four regions, and wherein the four regions comprise three regions of the small bowel and a region of the colon; obtaining a set of values for each of said segments, wherein the set of values refers to the pathological involvement of the segment in the mucosal disease and to severity of mucosal manifestation of the mucosal disease in the segment; and based on said set of values for each segment, generating a representation indicating the location and severity of the mucosal manifestation of the mucosal disease in the entirety of the at least portion of the subject's GIT, thereby allowing to assess the condition of the mucosal disease in the at least portion of the subject's GIT.
A thermal protection material comprising: a non-woven sheet of nanotubes; a substrate material adjacent to the non-woven sheet; and an adhesive material positioned between the non-woven sheet and the substrate material, characterized in that the non-woven nanotube sheet has a density ranging from at least about 0.1 mg/cm 2 to over 5 mg/cm 2, and/or a nominal strength ranging from about 69 MPa (10K psi) to about 138 MPa (20K psi), and/or a tensile strength over 40 MPa. a non-woven sheet of nanotubes; a substrate material adjacent to the non-woven sheet; and an adhesive material positioned between the non-woven sheet and the substrate material, characterized in that the non-woven nanotube sheet has a density ranging from at least about 0.1 mg/cm 2 to over 5 mg/cm 2, and/or a nominal strength ranging from about 69 MPa (10K psi) to about 138 MPa (20K psi), and/or a tensile strength over 40 MPa.
Arrangement, in particular testing arrangement, having a geared motor, a solid shaft and gear mechanisms, in particular gear mechanisms functioning as test specimens, wherein each gear mechanism has a hollow shaft, in particular a hollow shaft which passes through the gear mechanism, wherein each gear mechanism has a further, input shaft, wherein the solid shaft is in each case rotatably fixedly connected to the hollow shafts of the gear mechanisms, wherein a first of the gear mechanisms has a torque flow from the further shaft to the hollow shaft, that is to say can be operated as an input gear mechanism, wherein the other gear mechanisms each have a torque flow from their respective hollow shaft to their respective further shaft, that is to say can each be operated in a retrodriving fashion, characterized in that the further shafts of these gear mechanisms operated in a retrodriving fashion are freely rotatable, that is to say do not drive any load, wherein the solid shaft is connected in a force-fitting manner to the respective hollow shaft by means of a respective shrink disc, wherein each gear mechanism is at least partially filled with lubricating oil, wherein in each case the hollow shaft is sealed off with respect to a housing part of the respective gear mechanism by means of one or more shaft sealing rings, wherein the shaft sealing ring is accommodated on a corresponding seat in the housing part and a sealing lip of the shaft sealing ring runs on the hollow shaft, wherein in each case the further shaft is sealed off with respect to a housing part of the respective gear mechanism by means of a shaft sealing ring, wherein the shaft sealing ring is accommodated on a corresponding seat in the housing part and a sealing lip of the shaft sealing ring runs on the further shaft, wherein an outer ring of the bearing of the further shaft centres a cover part with respect to the housing part (1, 2), wherein the cover part closes a recess of the housing part.
A stock coupling system for a firearm, the stock coupling system comprising: a longitudinal axis; a hinge mechanism comprising a front hinge member configured to be fixedly coupled to a main body of the firearm, and a rear hinge member pivotably coupled to front hinge member; the hinge mechanism selectively movable between a locked condition in which the rear hinge member is not movable relative to the front hinge member, and an unlocked condition in which the rear hinge member is movable relative to the front hinge member; an actuating button movably mounted to the hinge mechanism, the actuating button being configured to lock the rear hinge member to the front hinge member in the locked condition of the hinge mechanism; and an elongated rear mounting extension coupled to the rear hinge member, the rear mounting extension configured to detachably couple a rear stock thereto; wherein the actuating button is linearly movable between an outward position in which the actuating button is lockingly engaged with the front hinge member and an inward position disengaged from the front hinge member; an operating spring which biases the actuating button towards the outward position; a retention plate fixedly coupling the rear mounting extension to the rear hinge member via a pair of fasteners passing through the rear hinge member and rear mounting extension to threadably engage the retention plate; wherein the retention plate further comprises a retention protrusion which engages a corresponding retention tab on the actuating button to prevent ejection of the actuating button by the operating spring. a longitudinal axis; a hinge mechanism comprising a front hinge member configured to be fixedly coupled to a main body of the firearm, and a rear hinge member pivotably coupled to front hinge member; the hinge mechanism selectively movable between a locked condition in which the rear hinge member is not movable relative to the front hinge member, and an unlocked condition in which the rear hinge member is movable relative to the front hinge member; an actuating button movably mounted to the hinge mechanism, the actuating button being configured to lock the rear hinge member to the front hinge member in the locked condition of the hinge mechanism; and an elongated rear mounting extension coupled to the rear hinge member, the rear mounting extension configured to detachably couple a rear stock thereto; wherein the actuating button is linearly movable between an outward position in which the actuating button is lockingly engaged with the front hinge member and an inward position disengaged from the front hinge member; an operating spring which biases the actuating button towards the outward position; a retention plate fixedly coupling the rear mounting extension to the rear hinge member via a pair of fasteners passing through the rear hinge member and rear mounting extension to threadably engage the retention plate; wherein the retention plate further comprises a retention protrusion which engages a corresponding retention tab on the actuating button to prevent ejection of the actuating button by the operating spring.
A hydraulic hammer comprising: a housing defining a cutout; a power cell slidably received within the housing, the power cell including a valve assembly extending from a side of the power cell, wherein the valve assembly is at least partially received within the cutout of the housing; and a pair of wear plates at least partially disposed around the valve assembly of the power cell; characterised in that each of the pair of wear plates is coupled to the power cell. a housing defining a cutout; a power cell slidably received within the housing, the power cell including a valve assembly extending from a side of the power cell, wherein the valve assembly is at least partially received within the cutout of the housing; and a pair of wear plates at least partially disposed around the valve assembly of the power cell; characterised in that each of the pair of wear plates is coupled to the power cell.
Method for separating printed products that are printed together onto a sheet, wherein printed products that are printed together onto the sheet in a printing press are separated by means of a cutting device in a cutting system located downstream of the printing press, wherein each of these printed products has an identification feature that identifies its respective position on the sheet, wherein the unprinted sheet is rectangular in shape and becomes deformed as it passes through the printing press, characterized in that the separated printed products, which are likewise deformed as a result of the deformation of the sheet, are inspected in a quality control device located downstream of the cutting system for compliance with a permissible preset tolerance, at least with regard to the respective length and/or width of said printed products, wherein for each printed product that has been identified in terms of its position based on its identification feature, the quality control device detects information relating to an exceeding of the permissible tolerance at least for the length and/or width of the printed product in question, wherein the quality control device transmits this information detected by it, assigning said information to the position identified on the sheet, to a control unit of the cutting system, wherein, based on the information transmitted by the quality control device, for similar printed products that are arranged in the same position on the sheet and will be separated subsequently in the cutting system, the control unit of the cutting system adjusts the relevant sheet and the cutting device in their respective positions relative to one another in such a way that each of the printed products to be separated complies optimally with the respective preset tolerance, wherein the optimal compliance with the relevant tolerance is achieved in that the position of the sheet and the cutting device to be adjusted relative to one another is calculated in the control unit using a mathematical optimization method, wherein the sheet containing the printed products to be separated is placed on a cutting table in the cutting system, wherein the control unit of the cutting system adjusts the position of the sheet to be cut, which is lying on the cutting table, in relation to the cutting device of the cutting system in accordance with the position calculated by means of the mathematical optimization method.
A manufacturing method of a three-dimensional memory device (101, 102), comprising: forming an alternating dielectric stack on a substrate; forming a vertical structure penetrating the alternating dielectric stack in a vertical direction perpendicular to a surface of the substrate; removing a bottom dielectric layer of the alternating dielectric stack; forming an epitaxial layer between the substrate and the alternating dielectric stack after removing the bottom dielectric layer; and forming an insulating layer on the epitaxial layer, wherein the insulating layer is located between the epitaxial layer and the alternating dielectric stack, wherein the insulating layer is formed by performing an oxidation process to the epitaxial layer, wherein the epitaxial layer is separated from the alternating dielectric stack by a gap before forming the insulating layer, wherein a slit is formed vertically penetrating the alternating dielectric stack, wherein a recess is formed at the bottom of the slit by removing a part of the insulating layer and a part of the epitaxial layer, wherein a second doped region is formed in the epitaxial layer under the recess, wherein the epitaxial layer comprises a protruding part located between the insulating layer and the vertical structure in a horizontal direction orthogonal to the vertical direction. forming an alternating dielectric stack on a substrate; forming a vertical structure penetrating the alternating dielectric stack in a vertical direction perpendicular to a surface of the substrate; removing a bottom dielectric layer of the alternating dielectric stack; forming an epitaxial layer between the substrate and the alternating dielectric stack after removing the bottom dielectric layer; and forming an insulating layer on the epitaxial layer, wherein the insulating layer is located between the epitaxial layer and the alternating dielectric stack, wherein the insulating layer is formed by performing an oxidation process to the epitaxial layer, wherein the epitaxial layer is separated from the alternating dielectric stack by a gap before forming the insulating layer, wherein a slit is formed vertically penetrating the alternating dielectric stack, wherein a recess is formed at the bottom of the slit by removing a part of the insulating layer and a part of the epitaxial layer, wherein a second doped region is formed in the epitaxial layer under the recess, wherein the epitaxial layer comprises a protruding part located between the insulating layer and the vertical structure in a horizontal direction orthogonal to the vertical direction.
An electronic power steering apparatus comprising: a steering force assist device having a motor as a drive source, wherein the steering force assist device is configured to apply an assist force to a steering system of a vehicle; a torque sensor for outputting sensor signals (Sa, Sb) generated by a plurality of sensor elements (14a, 14b) based on torsion of a torsion bar provided in a steering shaft; a vehicle speed sensor for detecting a vehicle speed; a torque calculation means for detecting a steering torque based on the sensor signals outputted from the torque sensor; and a control means for controlling the steering force assist device, for calculating an assist control variable based on the steering torque and the vehicle speed, and for executing an assist control for applying an assist force based on the assist control variable to the steering system; wherein upon detection that only one of the sensor signals (Sa, Sb) generated by the plurality of sensor elements (14a, 14b) is normal, the control means is configured to execute an assist restriction process for setting an upper limit value and a lower limit value of the assist control variable, characterized in that the upper limit value and the lower limit value of the assist control variable are set according to at least any one of the lateral acceleration, steering angle, steering speed and yaw rate. a steering force assist device having a motor as a drive source, wherein the steering force assist device is configured to apply an assist force to a steering system of a vehicle; a torque sensor for outputting sensor signals (Sa, Sb) generated by a plurality of sensor elements (14a, 14b) based on torsion of a torsion bar provided in a steering shaft; a vehicle speed sensor for detecting a vehicle speed; a torque calculation means for detecting a steering torque based on the sensor signals outputted from the torque sensor; and a control means for controlling the steering force assist device, for calculating an assist control variable based on the steering torque and the vehicle speed, and for executing an assist control for applying an assist force based on the assist control variable to the steering system; wherein upon detection that only one of the sensor signals (Sa, Sb) generated by the plurality of sensor elements (14a, 14b) is normal, the control means is configured to execute an assist restriction process for setting an upper limit value and a lower limit value of the assist control variable, characterized in that the upper limit value and the lower limit value of the assist control variable are set according to at least any one of the lateral acceleration, steering angle, steering speed and yaw rate.
Flywheel comprising a primary flywheel mass suitable for being connected to a crankshaft of an internal combustion engine; a secondary flywheel mass rotatable with respect to said primary flywheel mass; a decoupling spring unit coupled to said primary flywheel mass; a spring loader coupled to said decoupling spring unit so as to angularly displace with respect to said primary flywheel mass; and a plurality of compression coil springs arranged circumferentially to be loaded/unloaded when said spring loader and said secondary mass angularly displace relative to each other so as to be in series with said decoupling spring unit, wherein said decoupling spring unit comprises at least a spiral spring loaded / unloaded by the relative rotation of said primary flywheel mass and said spring loader and in that at least one of said plurality of coil springs is compressable upon displacement of said spring loader with respect to said second flywheel mass to provide a first torsional stiffness that is higher than a second torsional stiffness of said spiral spring, said flywheel being such that at least a further one of said plurality of coil springs is compressable upon displacement of said spring loader with respect to said secondary flywheel mass to provide a third torsional stiffness that is lower than said first torsional stiffness, so that said coil springs provides for a variable torsional stiffness, characterized in that said at least one and said at least further coil spring are in parallel, a first gap being provided before compressing said at least one coil spring and a second gap being provided before compressing said at least further coil spring, wherein said first gap is closable at a first torque and said second gap is closable at a second torque, said first torque being higher than said second torque.
Device for making a curved formwork, whereby it comprises a central part; and at least one clamping means; and on either side of the central part coupling means as well as a pair of hinged arms (7,8) and a lever; wherein the central part is made to rest against a side of a flat form board, and the device can be coupled to the form board by the coupling means, whereby the pair of hinged arms (7,8) are hinge-mounted to the central part with one far end (9,10) and hinge-mounted to the lever with their other far end (11,12), wherein the lever is hinge-mounted at a far end to the at least one coupling means concerned, whereby the at least one clamping means is provided between the above mentioned levers or hinged arms (7,8) to move the hinged arms (7,8) towards each other or away from each other, characterised in that a first hinged arm of the above-mentioned pairs of hinged arms (7,8) is provided with one far end practically at a far end of the central part and with its other far end practically in the centre of the lever and wherein the other hinged arm of the above-mentioned pairs of hinged arms (7,8) is provided on the central part between the above-mentioned first hinged arms with one far end and practically at the far end of the lever with its other far end.
A thrombectomy device comprising a substantially cylindrical stent structure comprised of a plurality of meshes (3, 4) and also two connectors (5, 5') that are disposed at different meshes at the proximal end of the stent structure, and a guide wire, which comprises a coupling element to which the connectors (5, 5') are coupled, characterized by a slit, which extends helically over the shell face of the stent structure and a tensioning clip that spans the slit at the proximal end of the stent structure.
A method performed by a User Equipment, UE, for reporting link information, characterized in that the method comprises: Determining, by the UE, supporting Device to Device, D2D, communication, link information, comprising D2D link information and/or Device to Network, D2N, link information, to be reported to a network side; and Sending, by the UE, the determined link information to the network side over a D2N link, and indicating a link corresponding to the link information to the network side; wherein sending comprises transmitting the determined D2D link information to the network side over a first resource if the UE determines that the D2D link information is to be transmitted, and separately transmitting the determined D2N link information to the network side over a respective second resource if the UE determines that the D2N link information is to be transmitted, wherein the first and second resource over which the link information is carried is a first resource allocated by the network side for a D2D link of the UE, respectively a different second resource allocated by the network side for the D2N link of the UE, wherein the UE sends the D2D link information over the first resource to indicate that the link corresponding to the D2D link information is a D2D link, and the D2N link information over the second resource to indicate that the link corresponding to the D2N link information is a D2N link. Determining, by the UE, supporting Device to Device, D2D, communication, link information, comprising D2D link information and/or Device to Network, D2N, link information, to be reported to a network side; and Sending, by the UE, the determined link information to the network side over a D2N link, and indicating a link corresponding to the link information to the network side; wherein sending comprises transmitting the determined D2D link information to the network side over a first resource if the UE determines that the D2D link information is to be transmitted, and separately transmitting the determined D2N link information to the network side over a respective second resource if the UE determines that the D2N link information is to be transmitted, wherein the first and second resource over which the link information is carried is a first resource allocated by the network side for a D2D link of the UE, respectively a different second resource allocated by the network side for the D2N link of the UE, wherein the UE sends the D2D link information over the first resource to indicate that the link corresponding to the D2D link information is a D2D link, and the D2N link information over the second resource to indicate that the link corresponding to the D2N link information is a D2N link.