mhurhangee/ep-ind-claims huggingface dataset:
A method for driving a display device, comprising: performing a frame interpolation processing and increasing frame frequency; and performing a first super-resolution processing, wherein the first super-resolution processing comprises increasing the amount of image data and performing resolution conversion, and wherein resolution of a variety of regions of an image is recognized and the first super-resolution processing is performed on each region at different intensity or wherein the first super-resolution processing is performed only on some regions of the image depending on the content of the image. performing a frame interpolation processing and increasing frame frequency; and performing a first super-resolution processing, wherein the first super-resolution processing comprises increasing the amount of image data and performing resolution conversion, and wherein resolution of a variety of regions of an image is recognized and the first super-resolution processing is performed on each region at different intensity or wherein the first super-resolution processing is performed only on some regions of the image depending on the content of the image. wherein resolution of a variety of regions of an image is recognized and the first super-resolution processing is performed on each region at different intensity or wherein the first super-resolution processing is performed only on some regions of the image depending on the content of the image.
A method of determining a relationship between a mutual diffusion co-efficient D m and the concentration c of a solute within a solvent, comprising: obtaining a Taylorgram comprising a plurality of measurements of solute concentration c; and characterized by deriving from the Taylorgram a plurality of mutual diffusion coefficient values D m corresponding with a plurality of different concentrations c of solute in the solvent. obtaining a Taylorgram comprising a plurality of measurements of solute concentration c; and characterized by deriving from the Taylorgram a plurality of mutual diffusion coefficient values D m corresponding with a plurality of different concentrations c of solute in the solvent.
A vinyl chloride resin composition comprising: (a) a vinyl chloride resin; and (x) a plasticizer, wherein the (x) plasticizer includes: (b) a trimellitic acid ester; and (c) a polyester including a structural unit derived from adipic acid and a structural unit derived from 3-methyl-1,5-pentanediol, total content of the (b) trimellitic acid ester and the (c) polyester is 90 parts by mass or more per 100 parts by mass of the (a) vinyl chloride resin, and a proportion constituted by content of the (c) polyester in the total content of the (b) trimellitic acid ester and the (c) polyester is more than 50 mass%. (b) a trimellitic acid ester; and (c) a polyester including a structural unit derived from adipic acid and a structural unit derived from 3-methyl-1,5-pentanediol, total content of the (b) trimellitic acid ester and the (c) polyester is 90 parts by mass or more per 100 parts by mass of the (a) vinyl chloride resin, and a proportion constituted by content of the (c) polyester in the total content of the (b) trimellitic acid ester and the (c) polyester is more than 50 mass%.
A method comprising: providing an X-ray tube including an anode, a cathode and a filament; and providing an X-ray generator having a high voltage module; connecting the X-ray tube to the X-ray generator with two triaxial cables (40A, 40B), each of the two triaxial cables (40A, 40B) including a center conductor, an inner shield conductor surrounding the center conductor and an outer shield conductor surrounding the center conductor and the inner shield conductor, wherein the outer shield conductors of the two triaxial cables (40A, 40B) carry a ground voltage, wherein the two triaxial cables (40A, 40B) comprise a first triaxial cable and a second triaxial cable, wherein the first triaxial cable connects the high voltage module to the anode, and wherein the second triaxial cable connects the high voltage module to the cathode; supplying a precharge voltage to the inner shield conductors of the two triaxial cables (40A, 40B); supplying a dosing voltage across the X-ray tube, the dosing voltage being carried by the center conductors of the two triaxial cables (40A, 40B), wherein the precharge voltage is determined based on the dosing voltage; and supplying a dosing current to the filament while supplying the dosing voltage across the X-ray tube to generate an X-ray emission. providing an X-ray tube including an anode, a cathode and a filament; and providing an X-ray generator having a high voltage module; connecting the X-ray tube to the X-ray generator with two triaxial cables (40A, 40B), each of the two triaxial cables (40A, 40B) including a center conductor, an inner shield conductor surrounding the center conductor and an outer shield conductor surrounding the center conductor and the inner shield conductor, wherein the outer shield conductors of the two triaxial cables (40A, 40B) carry a ground voltage, wherein the two triaxial cables (40A, 40B) comprise a first triaxial cable and a second triaxial cable, wherein the first triaxial cable connects the high voltage module to the anode, and wherein the second triaxial cable connects the high voltage module to the cathode; supplying a precharge voltage to the inner shield conductors of the two triaxial cables (40A, 40B); supplying a dosing voltage across the X-ray tube, the dosing voltage being carried by the center conductors of the two triaxial cables (40A, 40B), wherein the precharge voltage is determined based on the dosing voltage; and supplying a dosing current to the filament while supplying the dosing voltage across the X-ray tube to generate an X-ray emission.
A web of material of a bellows of a passage between two articulately connected vehicles or a web of material of the canopy of a passenger boarding bridge or gangway, wherein the web of material comprises at least one reinforcement layer which has an elastomer coating (21, 22) on both sides, characterised in that the at least one reinforcement layer is made of a non-woven material, wherein between the non-woven material and the elastomer coating (21, 22) a bonding agent layer is arranged, wherein the non-woven material comprises at least one non-crimp fabric layer in which elastic yarns, for example, made from silicone or also EPDM, are located so that a high elasticity in one direction is achieved.
A catheter, comprising: a flexible tubing; and a control handle proximal of the flexible tubing, the control handle having: a barrel housing and a piston in a telescopic configuration, the piston having a thumb control, the piston configured for longitudinal movement relative to the barrel housing by a user via the thumb control for deflecting the tubing; and a tension adjustment assembly including: a force member adapted for applying a force on the piston; a knob rotationally coupled to the force member, the knob adapted for rotation by the user to adjust the force applied on the piston by the force member, and characterized in that the tension adjustment assembly further comprises a guide configured to limit the range of rotation of the knob so as to prevent damage to the piston or barrel housing, or disassembly or detachment of the tension adjustment assembly. a flexible tubing; and a control handle proximal of the flexible tubing, the control handle having: a barrel housing and a piston in a telescopic configuration, the piston having a thumb control, the piston configured for longitudinal movement relative to the barrel housing by a user via the thumb control for deflecting the tubing; and a tension adjustment assembly including: a force member adapted for applying a force on the piston; a knob rotationally coupled to the force member, the knob adapted for rotation by the user to adjust the force applied on the piston by the force member, and characterized in that the tension adjustment assembly further comprises a guide configured to limit the range of rotation of the knob so as to prevent damage to the piston or barrel housing, or disassembly or detachment of the tension adjustment assembly. a barrel housing and a piston in a telescopic configuration, the piston having a thumb control, the piston configured for longitudinal movement relative to the barrel housing by a user via the thumb control for deflecting the tubing; and a tension adjustment assembly including: a force member adapted for applying a force on the piston; a knob rotationally coupled to the force member, the knob adapted for rotation by the user to adjust the force applied on the piston by the force member, and characterized in that the tension adjustment assembly further comprises a guide configured to limit the range of rotation of the knob so as to prevent damage to the piston or barrel housing, or disassembly or detachment of the tension adjustment assembly. a force member adapted for applying a force on the piston; a knob rotationally coupled to the force member, the knob adapted for rotation by the user to adjust the force applied on the piston by the force member, and characterized in that the tension adjustment assembly further comprises a guide configured to limit the range of rotation of the knob so as to prevent damage to the piston or barrel housing, or disassembly or detachment of the tension adjustment assembly.
A method for configuring communication, characterized in that, the method comprising: determining, by a first terminal, discontinuous transmission and/or discontinuous reception configuration information of direct communication interface; and determining, by the first terminal, a period of time according to the DTX and/or DRX configuration information, and notifying a second terminal of the DTX and/or DRX configuration information via the direct communication interface; wherein the period of time corresponds to active time of the DTX and/or DRX;wherein the DTX and/or DRX configuration information comprises a part or all of following information: onDurationTimer; drx-InactivityTimer; drx-RetransmissionTimer; LongDRX-CycleStartOffset; LongDTX-CycleStartOffset; ShortDRX-Cycle; ShortDTX-Cycle; DrxShortCycleTimer; and DtxShortCycleTimer. determining, by a first terminal, discontinuous transmission and/or discontinuous reception configuration information of direct communication interface; and determining, by the first terminal, a period of time according to the DTX and/or DRX configuration information, and notifying a second terminal of the DTX and/or DRX configuration information via the direct communication interface; wherein the period of time corresponds to active time of the DTX and/or DRX;wherein the DTX and/or DRX configuration information comprises a part or all of following information: onDurationTimer; drx-InactivityTimer; drx-RetransmissionTimer; LongDRX-CycleStartOffset; LongDTX-CycleStartOffset; ShortDRX-Cycle; ShortDTX-Cycle; DrxShortCycleTimer; and DtxShortCycleTimer. onDurationTimer; drx-InactivityTimer; drx-RetransmissionTimer; LongDRX-CycleStartOffset; LongDTX-CycleStartOffset; ShortDRX-Cycle; ShortDTX-Cycle; DrxShortCycleTimer; and DtxShortCycleTimer.
A fusion device for fusing a joint of a human or animal patient, wherein the joint is a synovial joint comprising two articular surfaces and a gap therebetween, the fusion device comprising: at least two anchorage portions and at least one stabilization portion, wherein the fusion device has an overall depth parallel to an implantation direction, the overall depth extending from a proximal face to a distal end of the fusion device, an overall width and a thickness profile (T1 and T2) perpendicular to the implantation direction, wherein the anchorage portions and the stabilization portion are arranged alternating over the width by the fact that the stabilization portion is arranged between the anchorage portions, and wherein the anchorage portion(s) have a thickness being greater than the thickness of the stabilization portion(s), wherein at least one anchorage portion comprises a thermoplastic liquefiable material being arranged on a surface of the anchorage portion or inside a perforated sheath constituting a part of the anchorage portion, wherein said surface of the anchorage portion or said perforated sheath is arranged on the fusion device for being in contact with bone tissue on implantation, and wherein the two anchorage portions are two pin-shaped anchorage portions, wherein the depth of the anchorage portions is larger than the depth of the stabiliziation portion, and wherein distally the anchorage portions and the stabilization portion together form a concave device contour which delimits an osteoconduction region. at least two anchorage portions and at least one stabilization portion, wherein the fusion device has an overall depth parallel to an implantation direction, the overall depth extending from a proximal face to a distal end of the fusion device, an overall width and a thickness profile (T1 and T2) perpendicular to the implantation direction, wherein the anchorage portions and the stabilization portion are arranged alternating over the width by the fact that the stabilization portion is arranged between the anchorage portions, and wherein the anchorage portion(s) have a thickness being greater than the thickness of the stabilization portion(s), wherein at least one anchorage portion comprises a thermoplastic liquefiable material being arranged on a surface of the anchorage portion or inside a perforated sheath constituting a part of the anchorage portion, wherein said surface of the anchorage portion or said perforated sheath is arranged on the fusion device for being in contact with bone tissue on implantation, and wherein the two anchorage portions are two pin-shaped anchorage portions, wherein the depth of the anchorage portions is larger than the depth of the stabiliziation portion, and wherein distally the anchorage portions and the stabilization portion together form a concave device contour which delimits an osteoconduction region.
A method of creating MEMS structures by selectively etching a silicon wafer that is patterned by using masking layers for defining the structural features of a MEMS device, the method comprising a) depositing and patterning a first mask on a silicon wafer in order to define desired first areas on the wafer to be etched in a first trench etching b) etching first trenches (3a, 3b) on the parts of the wafer not covered by the first mask in a first trench etching, c) filling the first trenches (3a, 3b) with a deposit layer, characterized by d) removing a part of the deposit layer on desired second areas to be etched in a second trench etching and leaving the rest of it on areas to function as a second mask in order to define final movable structures, e) forming final movable structures by etching second trenches to parts of the wafer on the desired second areas in the second trench etching, and f) removing said second mask. a) depositing and patterning a first mask on a silicon wafer in order to define desired first areas on the wafer to be etched in a first trench etching b) etching first trenches (3a, 3b) on the parts of the wafer not covered by the first mask in a first trench etching, c) filling the first trenches (3a, 3b) with a deposit layer, characterized by d) removing a part of the deposit layer on desired second areas to be etched in a second trench etching and leaving the rest of it on areas to function as a second mask in order to define final movable structures, e) forming final movable structures by etching second trenches to parts of the wafer on the desired second areas in the second trench etching, and f) removing said second mask.
A contention based resource configuration method, comprising: configuring, by a network device, a contention based, CB resource parameter, wherein the CB resource parameter comprises one or any combination of the following: a period of a CB resource block, a frequency of the CB resource block, and the number of CB resource blocks allocated once, and notifying, by the network device, a user equipment, UE of the CB resource parameter before notifying the UE of a CB grant, so that the UE detects the CB grant according to the CB resource parameter. configuring, by a network device, a contention based, CB resource parameter, wherein the CB resource parameter comprises one or any combination of the following: a period of a CB resource block, a frequency of the CB resource block, and the number of CB resource blocks allocated once, and notifying, by the network device, a user equipment, UE of the CB resource parameter before notifying the UE of a CB grant, so that the UE detects the CB grant according to the CB resource parameter.
An axial transmission system comprising: - a driving pulley, mounted on a drive shaft, comprising a stationary disc secured to said drive shaft and a mobile disc axially moveable wherein an outer face of said mobile disc has a series of housings inclined with respect to a direction vertical or perpendicular to the axis of rotation of the device and containing masses that can be moved inertially against a cover rotating integrally with the drive shaft; - a driven pulley, mounted on an output shaft, comprising a stationary disc secured to said output shaft and a mobile disc moveable in the axial direction as a result of its own inertia with respect to the output shaft; and - a belt that associates the driving and driven pulleys (1, 2) in rotation; and wherein the masses have a projecting end in a rounded spherical cap-like configuration forming a contact surface with the inner surface of the cover, and wherein the cover is rounded in a bell-shaped configuration; characterized in that the housings and the masses have a trapezoidal configuration with rounded edges defining means for guiding the masses in the axial direction, and preventing the masses from rotating inside their respective housings. - a driving pulley, mounted on a drive shaft, comprising a stationary disc secured to said drive shaft and a mobile disc axially moveable wherein an outer face of said mobile disc has a series of housings inclined with respect to a direction vertical or perpendicular to the axis of rotation of the device and containing masses that can be moved inertially against a cover rotating integrally with the drive shaft; - a driven pulley, mounted on an output shaft, comprising a stationary disc secured to said output shaft and a mobile disc moveable in the axial direction as a result of its own inertia with respect to the output shaft; and - a belt that associates the driving and driven pulleys (1, 2) in rotation; and wherein the masses have a projecting end in a rounded spherical cap-like configuration forming a contact surface with the inner surface of the cover, and wherein the cover is rounded in a bell-shaped configuration;
A method for operating a vehicle, the method comprising: Obtaining one or more input parameters from one or more input sources; Providing the one or more input parameters to a machine-learning model to obtain one or more output values, wherein the machine-learning model is an artificial neural network that is generated based on a pre-trained machine-learning model, the pre-trained machine-learning model being a driver-agnostic machine-learning model, and trained using an imitation learning approach that is based on a target function that is based on information about a driving behavior of a driver of the vehicle, wherein the machine-learning model is trained to imitate the driving behavior of the driver of the vehicle, wherein the one or more input parameters reflect a driving situation the vehicle is in and wherein the one or more output values indicate a driving maneuver to be carried out by the vehicle in response to the driving situation; and Generating the control signal based on the one or more output values. Obtaining one or more input parameters from one or more input sources; Providing the one or more input parameters to a machine-learning model to obtain one or more output values, wherein the machine-learning model is an artificial neural network that is generated based on a pre-trained machine-learning model, the pre-trained machine-learning model being a driver-agnostic machine-learning model, and trained using an imitation learning approach that is based on a target function that is based on information about a driving behavior of a driver of the vehicle, wherein the machine-learning model is trained to imitate the driving behavior of the driver of the vehicle, wherein the one or more input parameters reflect a driving situation the vehicle is in and wherein the one or more output values indicate a driving maneuver to be carried out by the vehicle in response to the driving situation; and Generating the control signal based on the one or more output values.
An endless metal ring manufacturing method including: a barrel polishing step of polishing an endless metal ring by use of a barrel made of resin; a rolling step of rolling the endless metal ring having been washed; a nitriding step of nitriding the rolled endless metal ring; and a resin removal step of removing the resin that has adhered to the endless metal ring, wherein the resin removal step is performed after the barrel polishing step and before the rolling step to prevent the resin from being fixed to a surface of the endless metal ring in the rolling step, and the resin removal step includes soaking the endless metal ring into a liquid and rotating the endless metal ring to perform ultrasonic washing to the endless metal ring. a barrel polishing step of polishing an endless metal ring by use of a barrel made of resin; a rolling step of rolling the endless metal ring having been washed; a nitriding step of nitriding the rolled endless metal ring; and a resin removal step of removing the resin that has adhered to the endless metal ring, wherein the resin removal step is performed after the barrel polishing step and before the rolling step to prevent the resin from being fixed to a surface of the endless metal ring in the rolling step, and the resin removal step includes soaking the endless metal ring into a liquid and rotating the endless metal ring to perform ultrasonic washing to the endless metal ring.