mhurhangee/ep-ind-claims huggingface dataset:
A drive module for removable coupling to a vehicle, the drive module comprising: a drive module frame; first and second wheels; a propulsion system coupled to the drive module frame and to the first and second wheels to drive at least one of the first and second wheels; one or more sensors coupled to the drive module to sense objects in an environment surrounding the drive module; and an energy storage system coupled to the propulsion system to provide power to the propulsion system, wherein the drive module is arranged to, based on the sensed objects, at least one of: provide sensor data for operating the vehicle; or mate with a body module of the vehicle. a drive module frame; first and second wheels; a propulsion system coupled to the drive module frame and to the first and second wheels to drive at least one of the first and second wheels; one or more sensors coupled to the drive module to sense objects in an environment surrounding the drive module; and an energy storage system coupled to the propulsion system to provide power to the propulsion system, provide sensor data for operating the vehicle; or mate with a body module of the vehicle.
A computer-implemented method, comprising: generating a virtual seismic shot record based at least in part on seismic interferometry of passively acquired seismic data; determining a frequency bandwidth of the virtual seismic shot record, wherein the frequency bandwidth comprises a plurality of frequencies; transforming the virtual seismic shot record into a frequency-dependent seismic shot record based on each of the plurality of frequencies; and for each of the plurality of frequencies: applying a phase shift to the frequency-dependent seismic shot record to generate a phase-shifted frequency dependent seismic shot record; generating a first velocity model from the phase shifted frequency-dependent seismic shot record; generating a second velocity model using full-waveform inversion based on the first velocity model; identifying a depth slice from the second velocity model; and generating a seismic image (78, 80, 82, 84) based at least in part on the depth slice for use with seismic exploration above a region of subsurface comprising a hydrocarbon reservoir and containing structural features conducive to a presence, migration, or accumulation of hydrocarbons. generating a virtual seismic shot record based at least in part on seismic interferometry of passively acquired seismic data; determining a frequency bandwidth of the virtual seismic shot record, wherein the frequency bandwidth comprises a plurality of frequencies; transforming the virtual seismic shot record into a frequency-dependent seismic shot record based on each of the plurality of frequencies; and for each of the plurality of frequencies: applying a phase shift to the frequency-dependent seismic shot record to generate a phase-shifted frequency dependent seismic shot record; generating a first velocity model from the phase shifted frequency-dependent seismic shot record; generating a second velocity model using full-waveform inversion based on the first velocity model; identifying a depth slice from the second velocity model; and generating a seismic image (78, 80, 82, 84) based at least in part on the depth slice for use with seismic exploration above a region of subsurface comprising a hydrocarbon reservoir and containing structural features conducive to a presence, migration, or accumulation of hydrocarbons. applying a phase shift to the frequency-dependent seismic shot record to generate a phase-shifted frequency dependent seismic shot record; generating a first velocity model from the phase shifted frequency-dependent seismic shot record; generating a second velocity model using full-waveform inversion based on the first velocity model; identifying a depth slice from the second velocity model; and generating a seismic image (78, 80, 82, 84) based at least in part on the depth slice for use with seismic exploration above a region of subsurface comprising a hydrocarbon reservoir and containing structural features conducive to a presence, migration, or accumulation of hydrocarbons.
A conjugate having the formula I: wherein the Oligonucleotide is an oligonucleotide; Ligand-Linker is selected from the group consisting of: L223 L221 L224 and the oligonucleotide is attached to the Linker via a phosphate, phosphorothioate, or a combination thereof. the Oligonucleotide is an oligonucleotide; Ligand-Linker is selected from the group consisting of: L223 L221 L224 and the oligonucleotide is attached to the Linker via a phosphate, phosphorothioate, or a combination thereof.
A method of displaying target engageability information to a pilot of an aircraft in flight, the method comprising calculating, according to instantaneous aircraft position and motion relative to at least one target to be engaged and to characteristics of a weapon, earliest and latest weapon release points between which the weapon is presently capable of engaging a target of interest, and generating display symbols indicating a weapon launch acceptable region which is the envelope between the earliest and latest release points and the instantaneous position of the aircraft relative thereto, wherein the display symbols are in the form of a box, the top and bottom horizontal lines of which indicate the weapon launch acceptable region.
Construction machine, in particular cold milling machine, recycler or surface miner, for working ground surfaces, comprising a milling drum supported at a machine frame and a conveying device which accepts the milled-off material from the milling drum during the working operation and unloads it onto a point of discharge via at least one continuously revolving transport belt, at a discharge end in conveying direction, along a parabolic trajectory, characterized in that as a minimum, the last section of the conveying device as seen in conveying direction comprises at least one continuously revolving cover belt (12a, 12b) arranged above the transport belt, said cover belt extending essentially parallel to the transport belt and resting against the milled-off material on the transport belt at least in a partial section of the length of the transport belt.
An aircraft propulsion system comprising a rotating assembly, the rotating assembly comprising a first rotating part and a second part, wherein the first rotating part is rotatable relative to a second part, the first and second parts mounted on a common axis, a combustion engine arranged to rotate the first part, and an electric motor connected to drive the second part, whereby in a first drive mode, the combustion engine rotates the first part in a first direction relative to the axis while the electric motor drives the second part in a second, opposite direction relative to the axis and characterised in that in a second drive mode, the combustion engine rotates the first part in the first direction and the electric motor does not drive the second part in the second, opposite direction; and in that the electric motor is configured to operate in a third mode to recover energy by windmilling. assembly comprising a first rotating part and a second part, wherein the first rotating part is rotatable relative to a second part, the first and second parts mounted on a common axis, a combustion engine arranged to rotate the first part, and an electric motor connected to drive the second part, whereby in a first drive mode, the combustion engine rotates the first part in a first direction relative to the axis while the electric motor drives the second part in a second, opposite direction relative to the axis and characterised in that in a second drive mode, the combustion engine rotates the first part in the first direction and the electric motor does not drive the second part in the second, opposite direction; and in that the electric motor is configured to operate in a third mode to recover energy by windmilling.
An autonomous self-propelled manure removal vehicle, comprising: - at least two wheels each having an axis of rotation, at least one motor device and a control device, for displacing the vehicle by driving at least one of the wheels, - a floor-scraping device having at least a flexible lower scraper rim to adapt its shape to the floor surface, the floor-scraping device being configured to clean, in a working state of the vehicle, a floor surface while being in contact with the floor surface, wherein the vehicle comprises at least one skid element with a slide surface to slide over a floor surface to support the vehicle in the working state of the vehicle, the at least one skid element being elongate, and wherein the lower scraper rim of the floor scraping device in a non-loaded and non-working resting state of the vehicle extends further downwardly than the slide surface of the at least one skid element, characterised in that the at least one skid element comprises at least a flexible lower skid rim, and extends substantially perpendicular to the axes of the wheels. - at least two wheels each having an axis of rotation, at least one motor device and a control device, for displacing the vehicle by driving at least one of the wheels, - a floor-scraping device having at least a flexible lower scraper rim to adapt its shape to the floor surface, the floor-scraping device being configured to clean, in a working state of the vehicle, a floor surface while being in contact with the floor surface, and wherein the lower scraper rim of the floor scraping device in a non-loaded and non-working resting state of the vehicle extends further downwardly than the slide surface of the at least one skid element, characterised in that the at least one skid element comprises at least a flexible lower skid rim, and extends substantially perpendicular to the axes of the wheels.
A diaphyseal implant component comprising: a. a first end (54A, 54B, 54C, 54D, 54E), b. a second end (56A, 56B, 56C, 56D, 56E) with a bore (90A, 90B, 90C, 90D, 90E) which is tapered, c. a longitudinal axis (58A, 58B, 58C, 58D, 58E) extending from the first end to the second end, and d. an outer surface (60A, 60B, 60C, 60D, 60E) including a first tapered portion (62A, 62B, 62C, 62D, 62E) at the first end, the first tapered portion of the outer surface being smooth and having a minimum outer dimension at the first end and a maximum outer dimension spaced from the first end, and e. an annular collar (80A, 80B, 80C, 80D, 80E) having an outer diameter greater than the maximum outer dimension of the first tapered portion of the outer surface, characterised in that the outer surface of the component includes a second tapered portion (64A, 64B, 64C, 64D, 64E) at the second end which is porous and has a minimum outer dimension at the second end and a maximum outer dimension spaced from the first end and second end, and the same outer dimension along two perpendicular transverse axes at the maximum outer dimension of the second tapered portion, the tapered bore in the second end of the component has a maximum inner dimension at the second end and a minimum inner dimension spaced between the first end and the second end of the implant component, and the annular collar is disposed between the first tapered portion of the outer surface and the second tapered portion of the outer surface, the annular collar having an outer diameter which is greater than the maximum outer dimension of the second tapered portion of the outer surface. a. a first end (54A, 54B, 54C, 54D, 54E), b. a second end (56A, 56B, 56C, 56D, 56E) with a bore (90A, 90B, 90C, 90D, 90E) which is tapered, c. a longitudinal axis (58A, 58B, 58C, 58D, 58E) extending from the first end to the second end, and d. an outer surface (60A, 60B, 60C, 60D, 60E) including a first tapered portion (62A, 62B, 62C, 62D, 62E) at the first end, the first tapered portion of the outer surface being smooth and having a minimum outer dimension at the first end and a maximum outer dimension spaced from the first end, and e. an annular collar (80A, 80B, 80C, 80D, 80E) having an outer diameter greater than the maximum outer dimension of the first tapered portion of the outer surface,
Method for presenting information upon starting an automotive vehicle, in which various parameters associated with the vehicle are verified, and in which a particular light beam is projected onto a specific area of the passenger compartment of the vehicle when the state of a plurality of the verified parameters allows said vehicle to be started.
Method for stabilizing the size of an object previously produced by hot-molding a composite material, the composite material comprising expanded microspheres and unexpanded microspheres, the microspheres being made of plastic material, of closed shape, hollow and filled with gas; comprising the step of heating again the molded object bringing it at a temperature which induces internal residual gas to exit from the material. the composite material comprising expanded microspheres and unexpanded microspheres, the microspheres being made of plastic material, of closed shape, hollow and filled with gas; comprising the step of heating again the molded object bringing it at a temperature which induces internal residual gas to exit from the material.
Appliance for producing beverages based on soluble products comprising a device for dispensing soluble products intended to be mixed with hot water in a mixing chamber to form a beverage, said device having a soluble product tank and a metering member comprising a cavity provided with an upper opening and a lower opening, said metering member being movable between a first filling position in which the upper opening is arranged opposite an opening in the tank and a second dispensing position wherein the lower opening is arranged above a hole arranged in an upper part of the mixing chamber, said device comprises a transfer tube arranged between the lower opening and the hole of the mixing chamber for guiding the soluble product from the cavity of the metering member to the mixing chamber when the metering member is in the second dispensing position, the transfer tube no longer being opposite the hole in the mixing chamber when the metering member is in the first filling position characterised in that said device comprises a plug arranged above the hole of the mixing chamber for closing said hole when the metering member is in the first filling position, the plug no longer being opposite the hole in the mixing chamber when the metering member is in the second dispensing position and in that the metering member, the transfer tube and the plug are driven from the first filling position to the second dispensing position by actuating means comprising a lever moved manually and in that the metering member, the transfer tube and the plug are driven from the second dispensing position to the first filling position by return means comprising in particular a return spring.
A razor cartridge comprising: a housing; a trailing blade assembly (32b, 132b, 232b, 332b, 432b, 532b, 632b, 732b, 832b) mounted to the housing, the trailing blade assembly comprising a trailing blade with a blade tip (18b-1); a leading blade assembly (32a, 132a, 232a, 332a, 432a, 532a, 632a, 732a, 832a) mounted to the housing in front of the trailing blade assembly, the leading blade assembly comprising a leading blade with a blade tip (18a-1); and a skin support element (50, 150, 250, 350, 450, 550, 650, 750, 850) affixed to the leading blade assembly and extending towards the blade tip of the trailing blade assembly, wherein a horizontal length of the skin support element is greater than a distance from a trailing part (59, 159, 259, 359, 459, 559) of the skin support element to the blade tip of the trailing blade assembly (18b-1)), and the skin support element (50, 150, 250, 350, 450, 550, 650, 750, 850) is affixed to the leading blade, characterized in that the leading blade is coupled to a leading blade support member (34a, 134a, 234a, 334a, 434a, 534a, 634a), the skin support element (50, 150, 250, 350, 450, 550, 650) extending past the leading blade support member. a housing; a trailing blade assembly (32b, 132b, 232b, 332b, 432b, 532b, 632b, 732b, 832b) mounted to the housing, the trailing blade assembly comprising a trailing blade with a blade tip (18b-1); a leading blade assembly (32a, 132a, 232a, 332a, 432a, 532a, 632a, 732a, 832a) mounted to the housing in front of the trailing blade assembly, the leading blade assembly comprising a leading blade with a blade tip (18a-1); and a skin support element (50, 150, 250, 350, 450, 550, 650, 750, 850) affixed to the leading blade assembly and extending towards the blade tip of the trailing blade assembly, wherein a horizontal length of the skin support element is greater than a distance from a trailing part (59, 159, 259, 359, 459, 559) of the skin support element to the blade tip of the trailing blade assembly (18b-1)), and the skin support element (50, 150, 250, 350, 450, 550, 650, 750, 850) is affixed to the leading blade, characterized in that the leading blade is coupled to a leading blade support member (34a, 134a, 234a, 334a, 434a, 534a, 634a), the skin support element (50, 150, 250, 350, 450, 550, 650) extending past the leading blade support member.
A method for producing a fiber-reinforced resin article, comprising: 3D printing including forming an article using fibers and a resin by a 3D printer; and pressurizing the 3D printed article formed by the 3D printing, wherein the pressurizing is performed at a temperature at which the resin of the 3D printed article is softened, characterized in that heating to the temperature at which the resin is softened is performed without contact between a heating device that heats the 3D printed article and the 3D printed article, and in that the heating is performed before the 3D printed article is disposed in a pressurizing device. 3D printing including forming an article using fibers and a resin by a 3D printer; and pressurizing the 3D printed article formed by the 3D printing, wherein the pressurizing is performed at a temperature at which the resin of the 3D printed article is softened, characterized in that heating to the temperature at which the resin is softened is performed without contact between a heating device that heats the 3D printed article and the 3D printed article, and in that the heating is performed before the 3D printed article is disposed in a pressurizing device.
An air vent comprising: at least one air redirecting element adapted to redirect an air flow flowing towards an outlet of the air vent, and a mesh panel with vent holes (503, 603, 703) arranged downstream of the at least one air redirecting element to cover the outlet of the air vent, characterized in that the at least one air redirecting element and the mesh panel are adapted such that the air flow is redirected by the at least one air redirecting element in a direction substantially perpendicular to at least a portion of the mesh panel with vent holes (503, 603, 703) in all direction modes of the at least one air redirecting element, wherein the at least one air redirecting element includes at least one rotatable vane, wherein the rotational orientation of the vane defines the direction mode of the at least one air redirecting element. at least one air redirecting element adapted to redirect an air flow flowing towards an outlet of the air vent, and a mesh panel with vent holes (503, 603, 703) arranged downstream of the at least one air redirecting element to cover the outlet of the air vent, characterized in that the at least one air redirecting element and the mesh panel are adapted such that the air flow is redirected by the at least one air redirecting element in a direction substantially perpendicular to at least a portion of the mesh panel with vent holes (503, 603, 703) in all direction modes of the at least one air redirecting element, wherein the at least one air redirecting element includes at least one rotatable vane, wherein the rotational orientation of the vane defines the direction mode of the at least one air redirecting element.
Method for processing solid recovered fuel pellets, comprising the following steps: a) torrefaction of the pellets at a torrefaction temperature of 250 to 300°C generating charred pellets and torrefaction gas; b) milling the charred pellets in a first milling step to coarsely milled charred pellets; c) removing metal residues from the coarsely milled charred pellets; d) milling the coarsely milled charred pellets to finely milled charred pellets; e) gasifying the finely milled charred pellets to raw syngas in an entrained flow gasifying process; f) performing CO shift reactions to the raw syngas creating shifted syngas; g) removing carbon dioxide and hydrogen sulfide from the shifted syngas creating a syngas; and h) generating a product gas stream rich in hydrogen by purifying the syngas. a) torrefaction of the pellets at a torrefaction temperature of 250 to 300°C generating charred pellets and torrefaction gas; b) milling the charred pellets in a first milling step to coarsely milled charred pellets; c) removing metal residues from the coarsely milled charred pellets; d) milling the coarsely milled charred pellets to finely milled charred pellets; e) gasifying the finely milled charred pellets to raw syngas in an entrained flow gasifying process; f) performing CO shift reactions to the raw syngas creating shifted syngas; g) removing carbon dioxide and hydrogen sulfide from the shifted syngas creating a syngas; and h) generating a product gas stream rich in hydrogen by purifying the syngas.
Electrosurgical instrument, in particular for argon plasma coagulation, comprising - a handle, - an electrode connected to the handle, - a shaft which surrounds the electrode and is held in the handle, and - an actuating mechanism which comprises at least one rotary knob arranged on the handle, which shaft is axially movable relative to the electrode and can be subjected to a shearing force by actuation of the rotary knob, characterized in that the handle has a brake device for permanently exerting a braking force on the shaft, and the actuating mechanism forms a transmission gearing which is connected to the shaft in order to transmit the shearing force. - a handle, - an electrode connected to the handle, - a shaft which surrounds the electrode and is held in the handle, and - an actuating mechanism which comprises at least one rotary knob arranged on the handle,
Active pen comprising an ink cartridge and a control circuit, wherein the ink cartridge comprises: an ink reservoir for containing ink, a tip with a ball rotatably supported for transferring ink from the ink reservoir to the tip during rotation of the ball; an electronic device for creating an ink jet, said ink jet is configured to transfer the ink from the ink reservoir onto the surface of the ball; wherein the control circuit is electrically connected with the electronic device and configured to switch the active pen between a first operation mode in which the electronic device is controlled to transfer ink from the ink reservoir to the surface of the ball by the ink jet and a second operation mode in which the electronic device is controlled to switch off the ink jet to interrupt the ink transfer from the ink reservoir to the surface of the ball; wherein the control circuit is electrically connected with the tip and/or the ball of the ink cartridge and is configured to apply in the second mode an electric signal to the tip and/or the ball for a capacitive or inductive or electromagnetic coupling with a touch device to detect the position of the tip and/or the ball on the touch device. an ink reservoir for containing ink, a tip with a ball rotatably supported for transferring ink from the ink reservoir to the tip during rotation of the ball; an electronic device for creating an ink jet, said ink jet is configured to transfer the ink from the ink reservoir onto the surface of the ball;