mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communications, comprising: determining, at a relay node, a first predicted motion of a first vehicle (502,602,702) including a first wireless communication device having an established first communication channel (520. 620. 720) with the relay node; determining that the first predicted motion (510, 610, 710) will trigger a communication condition for the first vehicle and a second wireless communication device having an established second communication channel with the relay node, by determining that the first vehicle will travel past the relay node to be closer to the second wireless communication device than the relay node is to the second wireless communication device; reserving radio resources for a third communication channel between the first wireless communication device and the second wireless communication device; and transmitting an indication of the reserved radio resources to the first wireless communication device via the first communication channel and to the second wireless communication device via the second communication channel. determining, at a relay node, a first predicted motion of a first vehicle (502,602,702) including a first wireless communication device having an established first communication channel (520. 620. 720) with the relay node; determining that the first predicted motion (510, 610, 710) will trigger a communication condition for the first vehicle and a second wireless communication device having an established second communication channel with the relay node, by determining that the first vehicle will travel past the relay node to be closer to the second wireless communication device than the relay node is to the second wireless communication device; reserving radio resources for a third communication channel between the first wireless communication device and the second wireless communication device; and transmitting an indication of the reserved radio resources to the first wireless communication device via the first communication channel and to the second wireless communication device via the second communication channel.
A method of displaying a medical image carried out on a medical image display apparatus, the method comprising: acquiring volume data of an object; generating a first 3D image by rendering the volume data in a first direction; displaying the first 3D image; displaying on the first 3D image a viewer tool, wherein the viewer tool indicates a section of the object which defines two pieces of sub-volume data (411, 413) by dividing the volume data, the viewer tool further indicating a second direction as direction information which is different from the first direction and perpendicular to the indicated section of the object; determining, based on the direction information included in the viewer tool, which of the two pieces of sub-volume data (411, 413) is to be rendered as second image; changing the position of the viewer tool on the basis of user input, to adjust a range of the object to be rendered as second image; generating a second 3D image by rendering the determined piece of sub-volume data in the second direction; and displaying at least a part of the second 3D image. acquiring volume data of an object; generating a first 3D image by rendering the volume data in a first direction; displaying the first 3D image; displaying on the first 3D image a viewer tool, wherein the viewer tool indicates a section of the object which defines two pieces of sub-volume data (411, 413) by dividing the volume data, the viewer tool further indicating a second direction as direction information which is different from the first direction and perpendicular to the indicated section of the object; determining, based on the direction information included in the viewer tool, which of the two pieces of sub-volume data (411, 413) is to be rendered as second image; changing the position of the viewer tool on the basis of user input, to adjust a range of the object to be rendered as second image; generating a second 3D image by rendering the determined piece of sub-volume data in the second direction; and displaying at least a part of the second 3D image.
A cutting element for use in earth-boring tools, comprising: a cutting element substrate; a first layer of polycrystalline diamond material over a surface of the cutting element substrate, the first layer of diamond material exhibiting a first wear resistance; a second layer of polycrystalline diamond material on a side of the first layer of polycrystalline diamond material opposite the cutting element substrate, the second layer of polycrystalline diamond material comprising about 88 vol.% diamond or more, the second layer of polycrystalline diamond material comprising interbonded grains of diamond material, wherein the interbonded grains of diamond material have a number average grain size of about 15 μm or less, the second layer of polycrystalline diamond material exhibiting a second wear resistance greater than the first wear resistance; a leading chamfer formed proximate an edge of the cutting element between a front surface of the cutting element and a lateral surface of the cutting element; a break-in chamfer, a landing chamfer, and a trailing chamfer; wherein the break-in chamfer extends through only the second layer of polycrystalline diamond material; wherein the landing chamfer extends through at least a portion of the second layer of polycrystalline diamond material, and at least a portion of the first layer of polycrystalline diamond material; and wherein the trailing chamfer extends through at least a portion of the first layer of polycrystalline diamond material, and at least a portion of the cutting element substrate. a cutting element substrate; a first layer of polycrystalline diamond material over a surface of the cutting element substrate, the first layer of diamond material exhibiting a first wear resistance; a second layer of polycrystalline diamond material on a side of the first layer of polycrystalline diamond material opposite the cutting element substrate, the second layer of polycrystalline diamond material comprising about 88 vol.% diamond or more, the second layer of polycrystalline diamond material comprising interbonded grains of diamond material, wherein the interbonded grains of diamond material have a number average grain size of about 15 μm or less, the second layer of polycrystalline diamond material exhibiting a second wear resistance greater than the first wear resistance; a leading chamfer formed proximate an edge of the cutting element between a front surface of the cutting element and a lateral surface of the cutting element; a break-in chamfer, a landing chamfer, and a trailing chamfer; wherein the break-in chamfer extends through only the second layer of polycrystalline diamond material; wherein the landing chamfer extends through at least a portion of the second layer of polycrystalline diamond material, and at least a portion of the first layer of polycrystalline diamond material; and wherein the trailing chamfer extends through at least a portion of the first layer of polycrystalline diamond material, and at least a portion of the cutting element substrate.
A trailer for transporting liquids, in particular manure, comprising - a tank with front end wall, rear end wall and a casing surface connecting the two end walls, - a drawbar receptacle at the tank, - two pressure medium cylinders, - and a drawbar, which is attachable to the drawbar receptacle at different heights, - wherein the drawbar receptacle comprises multiple row of holes arrangements (19, 20), each with multiple holes disposed on top of each other, for attaching the drawbar at different heights, - and wherein the drawbar receptacle comprises a left lower row of holes arrangement and a right lower row of holes arrangement for attaching the drawbar, and a left upper row of holes arrangement and a right upper row of holes arrangement for respectively attaching a pressure medium cylinder holding the drawbar. - a tank with front end wall, rear end wall and a casing surface connecting the two end walls, - a drawbar receptacle at the tank, - two pressure medium cylinders, - and a drawbar, which is attachable to the drawbar receptacle at different heights, - wherein the drawbar receptacle comprises multiple row of holes arrangements (19, 20), each with multiple holes disposed on top of each other, for attaching the drawbar at different heights, - and wherein the drawbar receptacle comprises a left lower row of holes arrangement and a right lower row of holes arrangement for attaching the drawbar, and a left upper row of holes arrangement and a right upper row of holes arrangement for respectively attaching a pressure medium cylinder holding the drawbar.
A method for producing a polypropylene-based resin foamed blow-molded article, comprising extruding a foamable molten resin, obtained by kneading a polypropylene-based resin and a physical blowing agent, through a die to form a foamed parison in a softened state, placing the foamed parison between molds, and blow molding the foamed parison, wherein said polypropylene-based resin comprises a polypropylene-based resin that meets requirements to shown below and a polypropylene-based resin that meets requirement shown below, when the polypropylene-based resins and are each subjected to dynamic viscoelasticity measurement in which an oscillation strain is applied thereto at a temperature of 190°C, and wherein a mixing ratio by weight (A:B) of the resin to the resin is 100:0.5 to 100:5, requirement: storage modulus G' is less than 5.0×10 -2 MPa at an angular frequency (ω) of 100 rad/sec, requirement: slope between two points [logG' at logω = 0] and [logG' at logω = 2] is 0.5 to 0.7, requirement: loss tangent (tanδ) at angular frequency (ω) of 1 rad/sec is 1.0 to 2.0, and requirement: loss tangent (tanδ) at angular frequency (ω) of 1 rad/sec is less than 1.0.
Process for controlling the roll motion of a ship, with null or low ship speed, through at least one stabilizing fin, the process comprising the following steps: a. starting a movement of the stabilizing fin when the roll motion starts; b. impressing a motion law of the stabilizing fin depending on the roll rate; c. ending the movement of the stabilizing fin when the roll motion ends, wherein the movement of the stabilizing fin is stopped next to any position reached by the stabilizing fin, the stabilizing fin being moved with a rate proportional to the roll rate, to create a gradual stabilizing movement opposed to the roll motion, and, next to a null roll rate, the stabilizing fin instantaneously stopping and keeping its reached position, whichever its reached position is, next to a not null roll rate, the stabilizing fin starting again moving, starting from the position reached in a previous cycle for controlling the roll motion. a. starting a movement of the stabilizing fin when the roll motion starts; b. impressing a motion law of the stabilizing fin depending on the roll rate; c. ending the movement of the stabilizing fin when the roll motion ends, wherein the movement of the stabilizing fin is stopped next to any position reached by the stabilizing fin, the stabilizing fin being moved with a rate proportional to the roll rate, to create a gradual stabilizing movement opposed to the roll motion, and, next to a null roll rate, the stabilizing fin instantaneously stopping and keeping its reached position, whichever its reached position is, next to a not null roll rate, the stabilizing fin starting again moving, starting from the position reached in a previous cycle for controlling the roll motion.
A method of processing video data, the method comprising: determining whether one or more nested supplemental enhancement information, SEI, messages encapsulated by a scalable nesting SEI message are applicable to a default sub-bitstream of an encoded video bitstream, the default sub-bitstream being an operation point representation of an operation point defined by a layer identifier and a temporal identifier, the layer identifier and the temporal identifier being specified in a Network Abstraction Layer, NAL, unit header of an SEI NAL unit that encapsulates the scalable nesting SEI message; and when the one or more nested SEI messages are applicable to the default sub-bitstream, using the one or more nested SEI messages in an operation on the default sub-bitstream, wherein the determination of whether the one or more nested SEI messages encapsulated by the scalable nesting SEI messages are applicable to the default sub-bitstream is based at least in part on a syntax element in the scalable nesting SEI message, wherein the syntax element is not in any of the nested SEI messages. determining whether one or more nested supplemental enhancement information, SEI, messages encapsulated by a scalable nesting SEI message are applicable to a default sub-bitstream of an encoded video bitstream, the default sub-bitstream being an operation point representation of an operation point defined by a layer identifier and a temporal identifier, the layer identifier and the temporal identifier being specified in a Network Abstraction Layer, NAL, unit header of an SEI NAL unit that encapsulates the scalable nesting SEI message; and when the one or more nested SEI messages are applicable to the default sub-bitstream, using the one or more nested SEI messages in an operation on the default sub-bitstream, wherein the determination of whether the one or more nested SEI messages encapsulated by the scalable nesting SEI messages are applicable to the default sub-bitstream is based at least in part on a syntax element in the scalable nesting SEI message, wherein the syntax element is not in any of the nested SEI messages.
An iron golf club head, comprising: a head portion; and a badge portion adhered to said head portion, said head portion including: a face surface; and a back surface located behind said face surface, wherein said badge portion is adhered to either one of a first largest amplitude region where an amplitude in a fourth-order vibration mode of said back surface is the largest or a second largest amplitude region where an amplitude in a fifth-order vibration mode of said back surface is the largest, or both, however not adhered to the entire back surface area. a head portion; and a badge portion adhered to said head portion, said head portion including: a face surface; and a back surface located behind said face surface, wherein said badge portion is adhered to either one of a first largest amplitude region where an amplitude in a fourth-order vibration mode of said back surface is the largest or a second largest amplitude region where an amplitude in a fifth-order vibration mode of said back surface is the largest, or both, however not adhered to the entire back surface area. a face surface; and a back surface located behind said face surface, wherein said badge portion is adhered to either one of a first largest amplitude region where an amplitude in a fourth-order vibration mode of said back surface is the largest or a second largest amplitude region where an amplitude in a fifth-order vibration mode of said back surface is the largest, or both, however not adhered to the entire back surface area.
A bogie for a railway vehicle comprising an elastic element that is configured to be arranged between a vehicle body and a bogie frame of a railway vehicle and elastically supports both, wherein the elastic element is configured in such a manner that a spring constant for displacement in the longitudinal direction in the traveling direction of the vehicle body is smaller than that for displacement in the vertical direction or the left-and-right direction in the traveling direction, wherein the elastic element is configured by stacking first elastic bodies and plates in the vertical direction, and by stacking second elastic bodies and plates in the vertical direction, the second elastic bodies having a spring constant for displacement in the longitudinal direction that is larger than that of the first elastic bodies, the elastic element being configured to be opened to the front side or the rear side and the center side with respect to the traveling direction, and wherein in the same layer between the plates of the elastic element, the first elastic bodies are arranged on each of the front side and the rear side, and the second elastic bodies are arranged on the center side. wherein the elastic element is configured in such a manner that a spring constant for displacement in the longitudinal direction in the traveling direction of the vehicle body is smaller than that for displacement in the vertical direction or the left-and-right direction in the traveling direction, wherein the elastic element is configured by stacking first elastic bodies and plates in the vertical direction, and by stacking second elastic bodies and plates in the vertical direction, the second elastic bodies having a spring constant for displacement in the longitudinal direction that is larger than that of the first elastic bodies, the elastic element being configured to be opened to the front side or the rear side and the center side with respect to the traveling direction, and wherein in the same layer between the plates of the elastic element, the first elastic bodies are arranged on each of the front side and the rear side, and the second elastic bodies are arranged on the center side.
A spinal cord modulation system for reducing or inhibiting low back and/or leg pain without creating paresthesia, comprising: an implantable pulse generator that includes a machine-readable medium containing instructions for generating and transmitting a therapy signal at a frequency of from 1.5 kHz to 50 kHz, an amplitude of from 0.5 mA to 10mA, and a pulse width of from 10 microseconds to 333 microseconds, and at least one implantable lead that is elongated along a major axis and adapted for insertion into the epidural space, the lead having multiple electrical contacts adapted to deliver the therapy signal to the patient that are spaced equally along the major axis by multiple equal spacings between the electrical contacts, the electrical contacts of the lead being positionable to direct the therapy signal generated and transmitted by the pulse generator into a patient's spinal cord tissue when the at least one lead is implanted, the implantable pulse generator being coupleable to the at least one implantable lead. an implantable pulse generator that includes a machine-readable medium containing instructions for generating and transmitting a therapy signal at a frequency of from 1.5 kHz to 50 kHz, an amplitude of from 0.5 mA to 10mA, and a pulse width of from 10 microseconds to 333 microseconds, and at least one implantable lead that is elongated along a major axis and adapted for insertion into the epidural space, the lead having multiple electrical contacts adapted to deliver the therapy signal to the patient that are spaced equally along the major axis by multiple equal spacings between the electrical contacts, the electrical contacts of the lead being positionable to direct the therapy signal generated and transmitted by the pulse generator into a patient's spinal cord tissue when the at least one lead is implanted, the implantable pulse generator being coupleable to the at least one implantable lead.
Tool for a crushing device, in particular for commercial waste or household waste materials, wherein the tools consist of a tool base body and an exchangeable tool cutter part, and wherein the abutment surface between the tool base body and the tool cutter part comprises complementary elevations and depressions in such a way that the elevations of the tool base body engage into the depressions of the tool cutter part and vice versa, characterized in that in the tool base body, the abutment surface, which rests against the end surface of the tool cutter part is of concave design, so that the correspondingly formed end surface of the tool cutter part, in the mounted state, is overlapped by the tool base body.
An oxygen reduction catalyst comprising titanium dioxide particles, a carbon material and a catalyst component, wherein the titanium dioxide particles and the carbon material each support the catalyst component, characterized in that at least part of a surface of the titanium dioxide particles is covered with zinc oxide.
Flexible pipe body for a flexible pipe for transporting production fluid from a sub-sea location, comprising: an inner sheath layer for retaining fluid within a bore of the flexible pipe body; an outer sheath layer provided radially outwardly of the inner sheath layer; a pressure armour layer formed from an interlocked construction of wires wound with a lay angle close to 90° and first and second tensile armour layers (105, 106) formed from a plurality of metallic wires helically wound along the length of the pipe body, each between the inner sheath layer and the outer sheath layer, an abrasion layer provided radially outwardly of the outer sheath layer for protecting the outer sheath layer against abrasion damage; and a reinforcement layer provided between the outer sheath layer and the abrasion layer, for protecting the outer sheath layer against impact damage, wherein the reinforcement layer comprises a plurality of filaments that are woven, braided, knitted or otherwise intertwined, wherein the plurality of filaments are embedded in a matrix material. an inner sheath layer for retaining fluid within a bore of the flexible pipe body; an outer sheath layer provided radially outwardly of the inner sheath layer; a pressure armour layer formed from an interlocked construction of wires wound with a lay angle close to 90° and first and second tensile armour layers (105, 106) formed from a plurality of metallic wires helically wound along the length of the pipe body, each between the inner sheath layer and the outer sheath layer, an abrasion layer provided radially outwardly of the outer sheath layer for protecting the outer sheath layer against abrasion damage; and a reinforcement layer provided between the outer sheath layer and the abrasion layer, for protecting the outer sheath layer against impact damage, wherein the reinforcement layer comprises a plurality of filaments that are woven, braided, knitted or otherwise intertwined, wherein the plurality of filaments are embedded in a matrix material.
An electronic calculator comprising at least one processor, characterized in that the processor is configured to execute: a generation process for generating a cancel code generation code, by converting time-varying data with a first algorithm, to cancel a function limit mode in which at least some of functions of the electronic device are limited; a generation process for generating a generated cancel code from the cancel code generation code by converting the cancel code generation code with a second algorithm; an input process for inputting an input cancel code generated based on the cancel code generation code by converting the cancel code generation code with the second algorithm; a determination process for determining whether the input cancel code input after generating the cancel code generation code coincides with the generated cancel code; and a cancel process for canceling the function limit mode when the input cancel code coincides with the generated cancel code. a generation process for generating a cancel code generation code, by converting time-varying data with a first algorithm, to cancel a function limit mode in which at least some of functions of the electronic device are limited; a generation process for generating a generated cancel code from the cancel code generation code by converting the cancel code generation code with a second algorithm; an input process for inputting an input cancel code generated based on the cancel code generation code by converting the cancel code generation code with the second algorithm; a determination process for determining whether the input cancel code input after generating the cancel code generation code coincides with the generated cancel code; and a cancel process for canceling the function limit mode when the input cancel code coincides with the generated cancel code.