mhurhangee/ep-ind-claims huggingface dataset:
A method of generating and synchronizing a macro-diversity region transmitted by base stations in a network comprising: receiving a plurality of packets of content data; generating macro-diversity region data that includes at least one packet of the plurality of packets of content data; generating macro-diversity region control information that includes a time reference and frame offset information to indicate an offset from the time reference to identify a base station transmission frame that will include the macro-diversity region data, wherein the macro-diversity region control information further comprises a symbol offset to indicate an offset from the start of the base station transmission frame to identify a location for the macro-diversity region data in the base station transmission frame; and communicating the macro-diversity region data and the macro-diversity region control information to a plurality of base stations, the macro-diversity region control information including the time reference and the frame offset information to identify the base station transmission frame to include macro-diversity region data and to synchronize the transmission of the macro-diversity region data at the plurality of base stations. receiving a plurality of packets of content data; generating macro-diversity region data that includes at least one packet of the plurality of packets of content data; generating macro-diversity region control information that includes a time reference and frame offset information to indicate an offset from the time reference to identify a base station transmission frame that will include the macro-diversity region data, wherein the macro-diversity region control information further comprises a symbol offset to indicate an offset from the start of the base station transmission frame to identify a location for the macro-diversity region data in the base station transmission frame; and communicating the macro-diversity region data and the macro-diversity region control information to a plurality of base stations, the macro-diversity region control information including the time reference and the frame offset information to identify the base station transmission frame to include macro-diversity region data and to synchronize the transmission of the macro-diversity region data at the plurality of base stations.
A method performed by a robotic system, for identifying single objects from a random assortment of objects, wherein the method comprises: - picking, among a random assortment of objects on a presentation surface, an object from the presentation surface at a determined picking point, - removing any remaining objects from the presentation surface, - placing the picked object on the presentation surface, - analyzing the picked object on the presentation surface, in order to identify a single object. - picking, among a random assortment of objects on a presentation surface, an object from the presentation surface at a determined picking point, - removing any remaining objects from the presentation surface, - placing the picked object on the presentation surface, - analyzing the picked object on the presentation surface, in order to identify a single object.
Method for updating a digital map for localizing motor vehicles, wherein, in order to update the digital map, surroundings information (213, 233, 236, 243, 246) is recorded by a vehicle localized on the digital map and the recorded surroundings information (213, 233, 236, 243, 246) is compared with surroundings information (213, 233, 236, 243, 246) stored on the digital map, wherein the vehicle is navigated along a first route whose last performed comparison of surroundings information (213, 233, 236, 243, 246) is farthest back in time in comparison with at least one further optional route, wherein the first route is determined on the basis of up-to-dateness information stored on the digital map and associated with the surroundings information (213, 233, 236, 243, 246), wherein, on the basis of the comparison of the recorded surroundings information with the stored surroundings information, the stored surroundings information is updated on the digital map, characterized in that various routes are available for selection, wherein the selection is made in favour of the route whose check for validity of surroundings information is farthest back in time.
A method for estimating torque (T; H) transmitted to a structure located downstream of a transmission system of a vehicle, the vehicle comprising an engine for generating torque, the transmission system being configured to transmit a fraction of the torque generated by the engine to a plurality of wheels of the vehicle and a further fraction (T + H) of the torque generated by the engine to said structure, the transmission system comprising: - a shaft arrangement interposed between the engine and said structure; - a planetary gearing supported by the shaft arrangement; - a transmission unit arranged in parallel to the shaft arrangement; characterized in that the torque (T; H; W) transmitted to said structure is estimated on the basis of a group of parameters comprising: - torque upstream of the transmission system; - twist (Δθ) of the shaft arrangement; - a parameter (α) which is indicative of the ratio between an output rotational speed at an output of the transmission unit and an input rotational speed at an input of the transmission unit. - a shaft arrangement interposed between the engine and said structure; - a planetary gearing supported by the shaft arrangement; - a transmission unit arranged in parallel to the shaft arrangement; characterized in that the torque (T; H; W) transmitted to said structure is estimated on the basis of a group of parameters comprising: - torque upstream of the transmission system; - twist (Δθ) of the shaft arrangement; - a parameter (α) which is indicative of the ratio between an output rotational speed at an output of the transmission unit and an input rotational speed at an input of the transmission unit.
Method for determining protection limits associated with navigation states of a carrier, including steps consisting of: - estimating navigation states of the carrier at a present moment, - producing a statistical model of estimation errors of navigation states of the carrier at the present moment in the form of a covariance matrix, - extrapolating the statistical model of estimation errors to a future moment, - calculating a protection limit at a future moment using the extrapolated statistical model, characterised in that extrapolation of the statistical estimation error model applies a constant positive transition matrix to a standard deviation vector constructed from the square roots of the elements of the diagonal of the covariance matrix to propagate standard deviations of navigation states produced at the present moment, to a future moment, independently of the past dynamics of the carrier. - estimating navigation states of the carrier at a present moment, - producing a statistical model of estimation errors of navigation states of the carrier at the present moment in the form of a covariance matrix, - extrapolating the statistical model of estimation errors to a future moment, - calculating a protection limit at a future moment using the extrapolated statistical model,
A method for producing hydrophobic silica aerogel granules, the method comprising: 1) preparing a water glass dispersion by adding a water glass solution to an inorganic acid; 2) preparing a hydrophobic silica wet gel by adding the water glass dispersion, a surface modifier, and a non-polar organic solvent into a reactor to be subjected to a reaction, wherein the surface modifier is one or more selected from the group consisting of trimethylchlorosilane (TMCS), hexamethyldisilazane (HMDS), methyltrimethoxysilane, trimethylethoxysilane, ethyltriethoxysilane and phenyltriethoxysilane; and 3) drying the hydrophobic silica wet gel, wherein the non-polar organic solvent is added in an amount of greater than 83 vol% to less than 100 vol% based on the volume of the silica wet gel. 1) preparing a water glass dispersion by adding a water glass solution to an inorganic acid; 2) preparing a hydrophobic silica wet gel by adding the water glass dispersion, a surface modifier, and a non-polar organic solvent into a reactor to be subjected to a reaction, wherein the surface modifier is one or more selected from the group consisting of trimethylchlorosilane (TMCS), hexamethyldisilazane (HMDS), methyltrimethoxysilane, trimethylethoxysilane, ethyltriethoxysilane and phenyltriethoxysilane; and 3) drying the hydrophobic silica wet gel,
A protective cover (01, 11), in particular for covering machine elements or the like, comprising a plurality of support frames, which are mobile relative to one another, and comprising bellows sections (03, 13) each arranged between two support frames and attached to said support frames and forming in their totality a bellows or a bellows-like cover, characterised in that the bellows sections (03, 13) and the support frames are transparent and/or translucent at least in areas.
A reciprocating linear razor comprising: a housing functioning as a grip unit; a head unit coupled to one side of the housing; a razor blade cartridge disposed in a front surface of an upper portion of the head unit for cutting; and at least one vacuum-guard (33, 34) formed parallel to the razor blade cartridge in a front surface of the head unit, wherein, the vacuum-guard (33, 34) performs a vacuum pump function and massage effect, and thus, improves cutting force, characterized in that the reciprocating linear razor further comprises an eccentric cam module making the razor blade cartridge perform a reciprocating motion in a cutting direction and that when a vibration is generated by a reciprocating motion of the razor blade cartridge, the vacuum-guard (33, 34) vibrates together, and thus, a compression motion and an expansion motion are provided. a housing functioning as a grip unit; a head unit coupled to one side of the housing; a razor blade cartridge disposed in a front surface of an upper portion of the head unit for cutting; and at least one vacuum-guard (33, 34) formed parallel to the razor blade cartridge in a front surface of the head unit, wherein, the vacuum-guard (33, 34) performs a vacuum pump function and massage effect, and thus, improves cutting force, characterized in that the reciprocating linear razor further comprises an eccentric cam module making the razor blade cartridge perform a reciprocating motion in a cutting direction and that when a vibration is generated by a reciprocating motion of the razor blade cartridge, the vacuum-guard (33, 34) vibrates together, and thus, a compression motion and an expansion motion are provided.
An agricultural baling machine including a rotary input shaft connected by way of a baler driveline to a rotatable flywheel; and a drive converter that converts rotation of the flywheel to reciprocal rectilinear motion of a plunger, in a bale-forming chamber forming part of the baling machine, in a manner compressing plant matter in the bale-forming chamber; the driveline including one or more clutches (49, 54) for controlledly transferring rotary drive between the input shaft and the drive converter, the driveline includes a transmission including driveline components defining at least first and second selectable transmission ratios (G1, G2) between the input shaft and the flywheel; the baling machine includes or is operatively connected to one or more controllers configured to selectively engage driveline components defining the first transmission ratio or driveline components defining the second transmission ratio in dependence on conditions prevailing in the baling machine; and wherein the speed ratio of at least one of the first and second transmission ratios (G1, G2) is less than 1, characterized in that the input shaft is connectable via a first said clutch to driveline components including mutually meshed first and second gears (39, 41) defining the first transmission ratio; and via driveline components including mutually meshed third and fourth gears (42, 43) defining the second transmission ratio to a second said clutch, the outputs of the second gear and the second clutch being common and the controller is configured to prevent the first and second clutches (49, 54) from being simultaneously closed in a drive-transferring manner, and wherein the agricultural baling machine including one or more sensor (68, 71, 73) for measuring slip at the first clutch and one or more sensor (68, 71, 73) for measuring slip at the second clutch and generating outputs indicative of the degree of slip at the first and the second clutch respectively.
A method for applying sealing profiles by way of an adhesive layer to vehicle bodies or parts thereof using an application device, wherein - a sealing profile wound onto a roll is drawn from an unwinding unit of the application device, wherein the sealing profile is not checked for defects and/or discontinuities before winding onto the roll and the defects and/or the discontinuities of the sealing profile are not marked before winding the sealing profile onto the roll, - after drawing from the unwinding unit, the sealing profile passes through a buffer of the application device, which buffer compensates for fluctuations between an inflow speed and an outflow speed of the sealing profile; - the sealing profile is inspected for defects and discontinuities of the sealing profile using an optical inspection system as the sealing profile passes through the buffer, - portions of the sealing profile with defects and discontinuities of the sealing profile detected by the inspection system are cut off and separated from the sealing profile before the sealing profile with the adhesive layer is rolled on the vehicle body or the part of the vehicle body, along an application line provided for application purposes, by means of at least one application roller of an application head and - a portion of the sealing profile with a discontinuity detected by the inspection system is specifically rolled along the application line in such a manner that the discontinuity is located at a previously specified position along the application line on the vehicle body or the part of the vehicle body. - a sealing profile wound onto a roll is drawn from an unwinding unit of the application device, wherein the sealing profile is not checked for defects and/or discontinuities before winding onto the roll and the defects and/or the discontinuities of the sealing profile are not marked before winding the sealing profile onto the roll, - after drawing from the unwinding unit, the sealing profile passes through a buffer of the application device, which buffer compensates for fluctuations between an inflow speed and an outflow speed of the sealing profile; - the sealing profile is inspected for defects and discontinuities of the sealing profile using an optical inspection system as the sealing profile passes through the buffer, - portions of the sealing profile with defects and discontinuities of the sealing profile detected by the inspection system are cut off and separated from the sealing profile before the sealing profile with the adhesive layer is rolled on the vehicle body or the part of the vehicle body, along an application line provided for application purposes, by means of at least one application roller of an application head and - a portion of the sealing profile with a discontinuity detected by the inspection system is specifically rolled along the application line in such a manner that the discontinuity is located at a previously specified position along the application line on the vehicle body or the part of the vehicle body.
Electrode unit (10, 20) for an electric vacuum capacitor comprising a band-shaped capacitor plate (11, 21) with a height H, wherein the band-shaped capacitor plate (11, 21) is wound in a spiral with a maximum diameter D max and a constant distance between successive turns, wherein the band-shaped capacitor plate (11, 21) comprises a first longitudinal edge (11a, 21a) attached to a supporting part and a second longitudinal edge (11b, 21b), the second longitudinal edge (11b, 21b) being free, wherein at the outer extremity of the spiral, the first longitudinal edge (11a, 21a) and the second longitudinal edge (11b, 21b) are connected by an inclined edge (11c, 21c) such that the first longitudinal edge (11a, 21a) is longer than the second longitudinal edge (11b, 21b), wherein the inclined edge (11c, 21c) forms with the longitudinal axis of the band-shaped capacitor plate (11, 21) an angle α characterized in that the angle is less than or equal to an angle α max = 45°.
A method of operating a first terminal device for transmitting data to a second terminal device in a device-to-device communication mode in a wireless telecommunications system supporting communications on a first carrier operating over a first frequency band and a second carrier operating over a second frequency band; the method comprising: transmitting from the first terminal device to the second terminal device in a device-to-device communication mode on the first carrier control signalling comprising an indication that the first terminal device intends to transmit data to the second terminal device using the device-to-device communication mode on the second carrier after a carrier switch-over time; and after the carrier switch-over time, transmitting data to the second terminal device on the second carrier using the device-to-device communication mode. transmitting from the first terminal device to the second terminal device in a device-to-device communication mode on the first carrier control signalling comprising an indication that the first terminal device intends to transmit data to the second terminal device using the device-to-device communication mode on the second carrier after a carrier switch-over time; and after the carrier switch-over time, transmitting data to the second terminal device on the second carrier using the device-to-device communication mode.
Bioresorbable stent from a metal/polymer composite having a multiplicity of ring segments and spacer segments between ring segments, wherein the stent has a framework from a bioresorbable metal having a filling from a bioresorbable polymer, characterized in that the metal framework has a multiplicity of continuously slotted webs which for reinforcement are filled with the polymer and configure a composite profile having a polymer core that is bordered by two metal jowls such that the composite profile is imparted the strength and radial force required for fulfilling the static function, wherein the polymer core of the webs accounts for 30% to 70% of the web width.
A bone fixation device comprising: a bone fixation body extending in a plane defined by a longitudinal direction and a transverse direction that is perpendicular to the longitudinal direction, having a thickness in a lateral direction that is perpendicular to the longitudinal and transverse directions (L, T), and having a bone facing inner lateral surface and an opposed outer lateral surface, the bone fixation body further comprising a plurality of bone attachment locations spaced longitudinally along a length of the bone fixation body, the length defined between opposed first and second ends (43, 45), characterized in that the bone fixation body comprises a plurality of interconnected links extending in the longitudinal direction between the opposed first and second ends (43, 45), the links defining a plurality of longitudinally arranged crests and a plurality of longitudinally arranged valleys that define a spatial relationship therebetween; the plurality of crests being transversely spaced from the plurality of valleys, wherein the links are flexible in the longitudinal direction, such that when the length of the fixation body is adjusted, the plurality of crests and the plurality of valleys continue to define the spatial relationship although the spacing between adjacent crests and/or adjacent valleys changes. a bone fixation body extending in a plane defined by a longitudinal direction and a transverse direction that is perpendicular to the longitudinal direction, having a thickness in a lateral direction that is perpendicular to the longitudinal and transverse directions (L, T), and having a bone facing inner lateral surface and an opposed outer lateral surface, the bone fixation body further comprising a plurality of bone attachment locations spaced longitudinally along a length of the bone fixation body, the length defined between opposed first and second ends (43, 45), characterized in that the bone fixation body comprises a plurality of interconnected links extending in the longitudinal direction between the opposed first and second ends (43, 45), the links defining a plurality of longitudinally arranged crests and a plurality of longitudinally arranged valleys that define a spatial relationship therebetween; the plurality of crests being transversely spaced from the plurality of valleys, wherein the links are flexible in the longitudinal direction, such that when the length of the fixation body is adjusted, the plurality of crests and the plurality of valleys continue to define the spatial relationship although the spacing between adjacent crests and/or adjacent valleys changes.