mhurhangee/ep-ind-claims huggingface dataset:
A method for processing video information, comprising the steps of: estimating a transmission cost of CABAC encoding a difference between a motion vector, which is descriptive of a motion characteristic of the video information, and a predictor of the motion vector; wherein the estimating step comprises the steps of: initializing a lookup table; accessing the lookup table; retrieving a cost value that is indexed by the motion vector difference from the lookup table; and adaptively updating the cost value in the lookup table based at least on a collected actual CABAC encoding rate of the motion vector difference. estimating a transmission cost of CABAC encoding a difference between a motion vector, which is descriptive of a motion characteristic of the video information, and a predictor of the motion vector; wherein the estimating step comprises the steps of: initializing a lookup table; accessing the lookup table; retrieving a cost value that is indexed by the motion vector difference from the lookup table; and adaptively updating the cost value in the lookup table based at least on a collected actual CABAC encoding rate of the motion vector difference. initializing a lookup table; accessing the lookup table; retrieving a cost value that is indexed by the motion vector difference from the lookup table; and adaptively updating the cost value in the lookup table based at least on a collected actual CABAC encoding rate of the motion vector difference.
A method for determining a frequency difference of arrival, FDOA, with respect to a pulsed waveform received from a remote source by two spaced apart sensors (120a, 120b) located on a moveable platform, the method comprising: (a) obtaining for each sensor (120a, 120b), a respective plurality of in-phase and quadrature-phase, IQ, samples indicative of a pulse envelope of the received pulsed waveform, the pulsed waveform comprising a plurality of pulses; (b) determining an approximation of a time difference of arrival, TDOA, responsive to a leading edge of a common sampled pulse of the pulsed waveform; (c) obtaining for each pulse of the plurality of pulses, a first complex cross correlation of IQ samples at a delay (d c) closest to the approximation of the TDOA, and respective second and third complex cross correlations at least one additional delay (d c +1 and d c -1) on either side of the closest delay (d c); (d) refining for each pulse of the plurality of pulses, the approximation of the TDOA according to an interpolation of amplitudes of the cross-correlation; (e) determining for each pulse of the plurality of pulses, a respective rate of change (dΔφ/dt) of cross-correlation phase (Δφ); and (f) approximating a straight line fit to the rates of change (dΔφ/dt) of cross-correlation phase (Δφ) determined for the plurality of pulses, the slope of the straight line representative of the FDOA. (a) obtaining for each sensor (120a, 120b), a respective plurality of in-phase and quadrature-phase, IQ, samples indicative of a pulse envelope of the received pulsed waveform, the pulsed waveform comprising a plurality of pulses; (b) determining an approximation of a time difference of arrival, TDOA, responsive to a leading edge of a common sampled pulse of the pulsed waveform; (c) obtaining for each pulse of the plurality of pulses, a first complex cross correlation of IQ samples at a delay (d c) closest to the approximation of the TDOA, and respective second and third complex cross correlations at least one additional delay (d c +1 and d c -1) on either side of the closest delay (d c); (d) refining for each pulse of the plurality of pulses, the approximation of the TDOA according to an interpolation of amplitudes of the cross-correlation; (e) determining for each pulse of the plurality of pulses, a respective rate of change (dΔφ/dt) of cross-correlation phase (Δφ); and (f) approximating a straight line fit to the rates of change (dΔφ/dt) of cross-correlation phase (Δφ) determined for the plurality of pulses, the slope of the straight line representative of the FDOA.
A latex for friction member use comprising rubber particles comprised of a carboxyl group-containing highly saturated nitrile rubber containing α,β-ethylenically unsaturated nitrile monomer units in a ratio of 10 to 60 wt% and having an iodine value of 120 or less, wherein a difference Δd (Δd=d90-d50) between a volume cumulative 90% particle size of the rubber particles and volume cumulative 50% particle size of the rubber particles which are measured by a light scattering method is 0.0240 μm or more.
A multi-stage synchronous generator, comprising: a first stage; a second stage being a main exciter; means for determining the rotational speed of the multi-stage synchronous generator; a temperature sensor for measuring a temperature of the multi-stage synchronous generator; a field current supply path, connecting an output of the first stage to an exciter field current input of the second stage, to provide an exciter field current to the second stage; wherein the field current supply path comprises: a field current control element arranged to control the current supplied to the second stage in response to an output of the multi-stage synchronous generator, and a regulator, located between the output of the first stage and the field current control element, and arranged to limit a current and/or voltage supplied to the field current control element by the first stage; wherein the regulator is arranged to regulate the voltage supplied to the field current control element in response to the determined rotational speed of the multi-stage synchronous generator and the measured temperature of the multi-stage synchronous generator. a first stage; a second stage being a main exciter; means for determining the rotational speed of the multi-stage synchronous generator; a temperature sensor for measuring a temperature of the multi-stage synchronous generator; a field current supply path, connecting an output of the first stage to an exciter field current input of the second stage, to provide an exciter field current to the second stage; wherein the field current supply path comprises: a field current control element arranged to control the current supplied to the second stage in response to an output of the multi-stage synchronous generator, and a regulator, located between the output of the first stage and the field current control element, and arranged to limit a current and/or voltage supplied to the field current control element by the first stage; wherein the regulator is arranged to regulate the voltage supplied to the field current control element in response to the determined rotational speed of the multi-stage synchronous generator and the measured temperature of the multi-stage synchronous generator. a field current control element arranged to control the current supplied to the second stage in response to an output of the multi-stage synchronous generator, and a regulator, located between the output of the first stage and the field current control element, and arranged to limit a current and/or voltage supplied to the field current control element by the first stage; wherein the regulator is arranged to regulate the voltage supplied to the field current control element in response to the determined rotational speed of the multi-stage synchronous generator and the measured temperature of the multi-stage synchronous generator.
Door, comprising - a frame; - a door leaf; - a hinge for establishing a connection between the frame and the door leaf; - a finger protection roller parallel to the door leaf, the protective band (5.1) of which covers the space between the frame and the door leaf, wherein the frame, as viewed in a horizontal section, has a hollow profile which is at least approximately U-shaped, comprising a web (1.1) and two legs (1.2, 1.3); and wherein the frame is an independent component, which can be connected to a wall in such a way that a cavity remains between the face end of the wall and the web (1.1) of the frame; characterized in that the finger protection roller is disposed in the cavity between the end face of the wall and the web (1.1) of the frame, and the web (1.1) of the U-shaped hollow profile has a slot for passing through the protective band (5.1). - a frame; - a door leaf; - a hinge for establishing a connection between the frame and the door leaf; - a finger protection roller parallel to the door leaf, the protective band (5.1) of which covers the space between the frame and the door leaf,
A cooling wind introduction structure comprising: a duct having an air intake port that opens toward a road surface between a pair of wheels (Wf) that are lined-up in a vehicle transverse direction or at a vehicle rear side with respect to the pair of wheels(Wf), the duct guiding air, that is taken-in into a vehicle body from the air intake port, as cooling wind further toward the vehicle rear side than the air intake port; and a plurality of or a single longitudinal direction wall (64A, 72) that is provided within the duct along a vehicle longitudinal direction and a vehicle vertical direction, wherein at the duct, the air intake port is formed at an under cover that covers the vehicle from a road surface side, and the duct is structured to include a shroud that is mounted to the under cover and guides the cooling wind to a body to be cooled, and the longitudinal direction wall (64A, 72) is provided at the under cover so as to span between both edge portions, in the vehicle longitudinal direction, of the air intake port, characterized by further comprising a vehicle transverse direction wall that is provided at the under cover so as to span between both edge portions, in the vehicle transverse direction, of the air intake port. a duct having an air intake port that opens toward a road surface between a pair of wheels (Wf) that are lined-up in a vehicle transverse direction or at a vehicle rear side with respect to the pair of wheels(Wf), the duct guiding air, that is taken-in into a vehicle body from the air intake port, as cooling wind further toward the vehicle rear side than the air intake port; and a plurality of or a single longitudinal direction wall (64A, 72) that is provided within the duct along a vehicle longitudinal direction and a vehicle vertical direction, wherein at the duct, the air intake port is formed at an under cover that covers the vehicle from a road surface side, and the duct is structured to include a shroud that is mounted to the under cover and guides the cooling wind to a body to be cooled, and the longitudinal direction wall (64A, 72) is provided at the under cover so as to span between both edge portions, in the vehicle longitudinal direction, of the air intake port, characterized by further comprising a vehicle transverse direction wall that is provided at the under cover so as to span between both edge portions, in the vehicle transverse direction, of the air intake port.
A method of transferring a material to a substrate comprising: depositing a first material selectively on a modified surface of an applicator thereby forming a pattern on the surface; depositing a second material selectively on the surface of the applicator, wherein the first or second material includes a light emitting material; and contacting the surface of the applicator with the substrate, wherein depositing the first and the second material includes ink jet printing the material. depositing a first material selectively on a modified surface of an applicator thereby forming a pattern on the surface; depositing a second material selectively on the surface of the applicator, wherein the first or second material includes a light emitting material; and contacting the surface of the applicator with the substrate, wherein depositing the first and the second material includes ink jet printing the material.
A pouch designed for oral administration of an active ingredient, the pouch containing a powdered matrix composition comprising: granules comprising a water-soluble composition as a carrier and an amount of one or more cannabinoids. a water-soluble composition as a carrier and an amount of one or more cannabinoids.
A method for at least one of preserving lean body mass, preventing or minimizing loss of lean body mass during the weight loss by an animal, preventing a reduction in energy metabolism by the animal and reducing the risk of regaining weight by an animal after weight loss, the method comprising: feeding the animal for a caloric maintenance period a caloric maintenance diet containing calories that meet the animal's maintenance energy requirements; and feeding the animal for a caloric reduction period a caloric reduction diet containing calories that do not meet the animal's maintenance energy requirements; wherein the caloric reduction diet contains from at least 25 % fewer calories than the caloric maintenance diet; wherein the feeding for the caloric maintenance period and the feeding for the caloric reduction period are repeated; wherein the caloric maintenance period and the caloric reduction period are intermittent periods; wherein the caloric maintenance period and the caloric reduction period are daily, every other day, every other three days, every other four days, every other five days, every other six days, weekly, every other week, every other two weeks, every other three weeks, and monthly; wherein the animal is a dog or a cat. feeding the animal for a caloric maintenance period a caloric maintenance diet containing calories that meet the animal's maintenance energy requirements; and feeding the animal for a caloric reduction period a caloric reduction diet containing calories that do not meet the animal's maintenance energy requirements; wherein the caloric reduction diet contains from at least 25 % fewer calories than the caloric maintenance diet; wherein the feeding for the caloric maintenance period and the feeding for the caloric reduction period are repeated; wherein the caloric maintenance period and the caloric reduction period are intermittent periods; wherein the caloric maintenance period and the caloric reduction period are daily, every other day, every other three days, every other four days, every other five days, every other six days, weekly, every other week, every other two weeks, every other three weeks, and monthly; wherein the animal is a dog or a cat.
A generator of an amplitude-modulated radiofrequency signal, characterised in that it comprises: • means (11, 13, 14, 17) for generating a sinusoidal signal phase-shifted by a first variable value (-θ) relative to a phase reference and a sinusoidal signal phase-shifted by a given fixed non-zero value added to a second variable value (+θ) relative to said phase reference, said second variable value being in opposition to said first variable value relative to said phase reference, said variable values (-θ,θ) representing the modulation of said radiofrequency signal, said two sinusoidal signals having constant amplitude; • a first amplifier amplifying a first one of said two sinusoidal signals in a saturation mode or in the vicinity of its saturation point; • a second amplifier amplifying a second one of said two sinusoidal signals in a saturation mode or in the vicinity of its saturation point; • a fixed phase-shifter of equal value to the opposite of the given fixed non-zero value of said means for generating said two sinusoidal signals, said fixed phase-shifter coupling the signals coming from said two amplifiers (15, 16) so as to deliver the amplitude-modulated radiofrequency signal. • means (11, 13, 14, 17) for generating a sinusoidal signal phase-shifted by a first variable value (-θ) relative to a phase reference and a sinusoidal signal phase-shifted by a given fixed non-zero value added to a second variable value (+θ) relative to said phase reference, said second variable value being in opposition to said first variable value relative to said phase reference, said variable values (-θ,θ) representing the modulation of said radiofrequency signal, said two sinusoidal signals having constant amplitude; • a first amplifier amplifying a first one of said two sinusoidal signals in a saturation mode or in the vicinity of its saturation point; • a second amplifier amplifying a second one of said two sinusoidal signals in a saturation mode or in the vicinity of its saturation point; • a fixed phase-shifter of equal value to the opposite of the given fixed non-zero value of said means for generating said two sinusoidal signals, said fixed phase-shifter coupling the signals coming from said two amplifiers (15, 16) so as to deliver the amplitude-modulated radiofrequency signal.
A method for producing a guided bite guard for a supporting jaw comprising at least one guide (3, 30, 31) for an opposing jaw, wherein a 3D model of an upper jaw and a 3D model of a lower jaw are present, wherein the 3D models (5, 6) of the upper jaw and of the lower jaw are arranged in an occlusal position relative to one another, wherein the 3D model of the upper jaw and the 3D model of the lower jaw are used to construct a virtual 3D model of the bite guard, wherein the at least one guide (3, 30, 31) for the opposing jaw is constructed automatically in a computer-aided manner on the 3D model of the bite guard, characterised in that the 3D model of the guided bite guard is automatically calculated in a computer-aided manner, wherein the conditions to be met are that the guided bite guard covers a defined support region on the supporting jaw, that for at least one tooth of the opposing jaw at least one local cusp tip is defined as a support point.
An image sensing apparatus having a plurality of pixels (A11 - A88) arranged in two-dimensional matrix, each of said plurality of pixels having a photoelectric conversion unit, a capacitor for holding a signal, said apparatus comprising: a plurality of first switches (SW10, SW11, SW12) for connecting said capacitors of neighboring pixels of said plurality of pixels, each of said plurality of pixels further having a first amplifier (Tr1, I1, M1, Amp61), provided between said photoelectric conversion unit and a transfer switch, for amplifying a charge signal from said photoelectric conversion unit and outputting a corresponding voltage signal, wherein said capacitor holds the voltage signal output from the first amplifier via the transfer switch, and a second amplifier (Tr2, 12, M2, Amp62) provided between the capacitor and a vertical output line for amplifying and outputting the signal held by the capacitor, wherein the capacitor is connected between a node connecting the transfer switch and an input of the second amplifier (Tr2, 12, M2, Amp62) and ground. a plurality of first switches (SW10, SW11, SW12) for connecting said capacitors of neighboring pixels of said plurality of pixels, each of said plurality of pixels further having a first amplifier (Tr1, I1, M1, Amp61), provided between said photoelectric conversion unit and a transfer switch, for amplifying a charge signal from said photoelectric conversion unit and outputting a corresponding voltage signal, wherein said capacitor holds the voltage signal output from the first amplifier via the transfer switch, and a second amplifier (Tr2, 12, M2, Amp62) provided between the capacitor and a vertical output line for amplifying and outputting the signal held by the capacitor,
Method for synthesising diamond by chemical vapor deposition, in which a plasma is produce in a vacuum chamber in the vicinity of a substrate arranged to carry the diamond to be synthesised, and in which a carbon-carrying gas, in particular CH4 or C2H2, and H2 are introduced into the chamber in order to produce in the chamber a gas comprising substances containing reactive carbon atoms in the form of radicals or unsaturated molecules from which the synthesis of the diamond will be performed, characterized in that the electromagnetic absorption and inelastic division spectra of the diamond to be synthesised are used to take from the spectra the absorption frequencies which contribute to the reactions leading to the formation of the diamond to be synthesised and in that energetic rays are produced in the form of a beam of photons carrying amounts of energy determined by each of the frequencies corresponding to said absorption and inelastic diffusion frequencies, said beam of photons is injected into the plasma where, for energetic states of the diamond, an absorption of those photons having the energy corresponding to those energetic states is achieved by said gases carrying the reactive carbon atoms
An electric-motor furniture flap drive comprising a first component having an electric motor and a second component having a control arm, characterised by an identification device for automatically identifying the type of furniture flap in the installed condition of the furniture flap drive, said identification device being configured to identify a furniture flap out of the group of an upward fold flap, an upward pivotable flap and an upward lift flap, wherein the identification device is connected to a travel measuring device, preferably an angle measuring device, by which the travel which can be covered by the control arm between its two end positions, preferably the corresponding angle (φ), can be determined, wherein the identification device identifies the type of flap in dependence on the measurement result from the travel measuring device.
An apparatus comprising: a processor configured to: obtain a point cloud, make a choice between octree encoding or quadtree encoding of a parent node, and encode the parent node into a bitstream based on the choice; and a transmitter coupled to the processor and configured to transmit the bitstream; wherein, the processor is further configured to: encode in the bitstream a first parameter indicating a depth of point cloud coding information, wherein the depth of point cloud coding information is a depth at which quadtree encoding is used for a first time such that each of a set of first nodes before the depth are encoded using octree encoding; and encode in the bitstream a second parameter indicating a node encoding mode for each of a second set of nodes at and after the depth according to the first parameter, wherein the node encoding mode is one of the octree encoding or the quadtree encoding. a processor configured to: obtain a point cloud, make a choice between octree encoding or quadtree encoding of a parent node, and encode the parent node into a bitstream based on the choice; and obtain a point cloud, make a choice between octree encoding or quadtree encoding of a parent node, and encode the parent node into a bitstream based on the choice; and a transmitter coupled to the processor and configured to transmit the bitstream; wherein, the processor is further configured to: encode in the bitstream a first parameter indicating a depth of point cloud coding information, wherein the depth of point cloud coding information is a depth at which quadtree encoding is used for a first time such that each of a set of first nodes before the depth are encoded using octree encoding; and encode in the bitstream a second parameter indicating a node encoding mode for each of a second set of nodes at and after the depth according to the first parameter, wherein the node encoding mode is one of the octree encoding or the quadtree encoding. encode in the bitstream a first parameter indicating a depth of point cloud coding information, wherein the depth of point cloud coding information is a depth at which quadtree encoding is used for a first time such that each of a set of first nodes before the depth are encoded using octree encoding; and encode in the bitstream a second parameter indicating a node encoding mode for each of a second set of nodes at and after the depth according to the first parameter, wherein the node encoding mode is one of the octree encoding or the quadtree encoding.