mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of encoding a point cloud to generate a bitstream of compressed point cloud data, the point cloud being defined in a tree structure having a plurality of nodes having parent-child relationships and that represent the geometry of a volumetric space recursively split into sub-volumes and containing the points of the point cloud, the method comprising: for each of a plurality of current nodes, each current node associated with a said sub-volume split into further sub-volumes, and each further sub-volume corresponding to a child node of the current node: determining an occupancy pattern for the current node based on occupancy statuses of the child nodes indicated by an occupancy flag for each child node, wherein the occupancy pattern is specified by an integer representing a sequence of said occupancy flags associated with the child nodes in a pre-defined scan order; selecting one or more probabilities associated with respective entropy coders for entropy encoding the occupancy pattern, wherein the selecting is based on occupancy data for a plurality of neighbouring nodes of the current node and on occupancy data for child nodes of at least one of the plurality of neighbouring nodes; and entropy encoding the occupancy pattern based on the selected one or more probabilities, using the associated one or more entropy coders, to produce encoded data for the bitstream, wherein the selecting the one or more probabilities is based on a neighbouring configuration that is determined based on an occupancy status of each of the neighbouring nodes of the current node, and wherein the neighbouring nodes of the current nodes are those nodes that are at the same depth in the tree structure as the current node and whose associated sub-volumes intersect the sub-volume of the current node. determining an occupancy pattern for the current node based on occupancy statuses of the child nodes indicated by an occupancy flag for each child node, wherein the occupancy pattern is specified by an integer representing a sequence of said occupancy flags associated with the child nodes in a pre-defined scan order; selecting one or more probabilities associated with respective entropy coders for entropy encoding the occupancy pattern, wherein the selecting is based on occupancy data for a plurality of neighbouring nodes of the current node and on occupancy data for child nodes of at least one of the plurality of neighbouring nodes; and entropy encoding the occupancy pattern based on the selected one or more probabilities, using the associated one or more entropy coders, to produce encoded data for the bitstream, wherein the selecting the one or more probabilities is based on a neighbouring configuration that is determined based on an occupancy status of each of the neighbouring nodes of the current node, and wherein the neighbouring nodes of the current nodes are those nodes that are at the same depth in the tree structure as the current node and whose associated sub-volumes intersect the sub-volume of the current node.
A sheet binding device, comprising: a sheet shift section configured to shift a plurality of sheets forming a sheet bundle from each other at an edge of the sheet bundle; a tape attaching section configured to attach a tape to the edge of the sheet bundle; an information acquisition section configured to acquire information relating to at least one of the plurality of the sheets, the tape, and a binding method of the sheet bundle by the tape; and a controller configured to change a shift amount between sheets in the plurality of the sheets that is shifted by the sheet shift section based on the information acquired by the information acquisition section. a sheet shift section configured to shift a plurality of sheets forming a sheet bundle from each other at an edge of the sheet bundle; a tape attaching section configured to attach a tape to the edge of the sheet bundle; an information acquisition section configured to acquire information relating to at least one of the plurality of the sheets, the tape, and a binding method of the sheet bundle by the tape; and a controller configured to change a shift amount between sheets in the plurality of the sheets that is shifted by the sheet shift section based on the information acquired by the information acquisition section.
An elevator rope for suspending an elevator car, comprising a belt-shaped rope main body, wherein: said rope main body has a plurality of strands in which a plurality of wires are laid parallel; and a coating body made of a resin for covering and integrating said strands; and said strands are disposed side by side in a cross section perpendicular to a longitudinal direction of said rope main body, characterized in that said strands and said coating body are bonded to each other by means of an adhesive. said rope main body has a plurality of strands in which a plurality of wires are laid parallel; and a coating body made of a resin for covering and integrating said strands; and said strands are disposed side by side in a cross section perpendicular to a longitudinal direction of said rope main body, characterized in that said strands and said coating body are bonded to each other by means of an adhesive.
A method for preparing a modified collagen, the method comprising the steps of: a. providing isolated collagen; b. freezing the isolated collagen; c. dehydrating the frozen collagen; and d. maturing the dehydrated collagen, wherein the maturing step comprises storing the dehydrated collagen at a temperature of 2-8 °C for 1-3 years. a. providing isolated collagen; b. freezing the isolated collagen; c. dehydrating the frozen collagen; and d. maturing the dehydrated collagen,
A film formation apparatus (1A; 1B) of a metal film comprising: an anode; a solid electrolyte membrane disposed between the anode and a base serving as a cathode; and a power supply unit to apply voltage between the anode and the base, the film formation apparatus (1A; 1B) being configured so that, when the solid electrolyte membrane is brought into contact with a surface of the base, and voltage is applied between the anode and the base, metal is deposited on the surface of the base from metal ions included inside of the solid electrolyte membrane, so that the metal film made of the metal is formed, characterized in that the film formation apparatus (1A; 1B) comprises: a mounting base on which the base is to be placed, and a suction unit to suck the solid electrolyte membrane from a side of the base so that the solid electrolyte membrane is brought into intimate contact with the surface of the base placed on the mounting base during formation of the metal film.
A heart rate estimating apparatus comprising: a transmitter configured to transmit microwave with respect to a subject; a receiver configured to receive and detect reflected wave from the subject irradiated with the microwave, and acquire a detected result; a sensor configured to sense a movement of the subject, and acquire a sensed result; and an estimating unit (11, 420) configured to estimate a heart rate based on feature points obtained by frequency analysis of the detected result, the heart rate being estimated based on the feature points remaining after excluding, from heart rate candidates, feature points that are obtained by frequency analysis of the detected result that are located in a vicinity of frequencies at which further feature points are obtained by frequency analysis of the sensed result, characterised in that the feature points and further feature points identify peak frequencies established after frequency analysis to have a peak greater than or equal to a predetermined amplitude. a transmitter configured to transmit microwave with respect to a subject; a receiver configured to receive and detect reflected wave from the subject irradiated with the microwave, and acquire a detected result; a sensor configured to sense a movement of the subject, and acquire a sensed result; and an estimating unit (11, 420) configured to estimate a heart rate based on feature points obtained by frequency analysis of the detected result, the heart rate being estimated based on the feature points remaining after excluding, from heart rate candidates, feature points that are obtained by frequency analysis of the detected result that are located in a vicinity of frequencies at which further feature points are obtained by frequency analysis of the sensed result, characterised in that the feature points and further feature points identify peak frequencies established after frequency analysis to have a peak greater than or equal to a predetermined amplitude.
Radar system for a vehicle fleet, comprising multiple FMCW radar sensors (10, 10") for a respective vehicle (42; 46) of the vehicle fleet, wherein the FMCW radar sensors (10, 10") each have a control and evaluation device designed for a mode of operation in which a measurement cycle of a respective radar sensor (10, 10") involves at least two partial transmission signals (47, 47') being transmitted by the radar sensor (10, 10"), characterized in that the partial transmission signals each comprise a sequence of frequency modulation ramps (30; 30'), wherein the respective partial transmission signal (47, 47') is phase-modulated in accordance with a code sequence (C m1, C m2) of a codeset by virtue of the frequency modulation ramps (30; 30') each obtaining a phase in accordance with an element of the code sequence (C m1, C m2) that is associated with the frequency modulation ramp, wherein at least two associated code sequences (C m1, C m2) of the codeset for the at least two partial transmission signals (47, 47') are used for phase modulation, wherein radar echoes of the partial transmission signals (47, 47') are separately phase-demodulated and, for a respective partial transmission signal, a frequency spectrum of a Fourier analysis (32, 38) is determined in a first dimension by means of respective samples of a radar echo of a frequency modulation ramp (30; 30') and in a second dimension by means of the phase-demodulated sequence of the radar echoes of the successive frequency modulation ramps (30; 30') of the partial transmission signal (47, 47'), wherein a distance (d) and/or a relative velocity (v) of a located object is determined on the basis of a summation of the frequency spectra separately determined for the partial transmission signals, and wherein the control and evaluation device of a radar sensor for a first vehicle is designed to use at least one first codeset (C m1, C m2) for said mode of operation, wherein the control and evaluation device of a radar sensor (10") for at least one other vehicle of the vehicle fleet is designed to use at least one further codeset (C q1, C q2) for said mode of operation, and wherein the at least one first codeset (C m1, C m2) and the at least one further codeset (C q1, C q2) satisfy the codeset orthogonality condition that a summation of the complex cross-correlation of the q-th code sequence of the first codeset and the q-th code sequence of the further codeset, which summation is carried out over the number of code sequences per codeset, is equal to zero for any desired discrete shift between the code sequences of the first codeset and the other codeset, including a zero shift, where q is the summation index.
Composition comprising Fc antibody fragments for use in the treatment of immune thrombocytopenic purpura, said Fc fragments being isolated Fc fragments having improved affinity, by a ratio of at least 2, for the FcRγIII(CD16a) receptor compared with a parent Fc fragment of wild-type IgGI of sequence SEQ ID NO: 1, and comprising at least the sequence SEQ ID NO: 19.
Cosmetic composition for caring for and/or making up the skin, in the form of an emulsion of water-in-silicone type, having a density of less than 1.1, and comprising, by weight relative to the weight of the composition: - between 40 and 90% of a continuous silicone fatty phase comprising at least one silicone oil and between 1 and 4% of cetyl PEG/PPG-10/1 dimethicone and between 1 and 6% of cyclopentasiloxane and PEG/PPG-19/19 dimethicone, as silicone surfactants having an HLB of less than or equal to 10, - an aqueous phase dispersed in said continuous fatty phase, - a dispersion of gas droplets having a mean diameter of between 10 nm and 1 μm, - a stabilizing system for stabilizing the dispersion of gas droplets, comprising between 0.8 and 5% of PEG-150 distearate as surfactant having an HLB of greater than or equal to 16 and between 0.01 and 1% of sodium polyacrylate as hydrophilic gelling compound. - between 40 and 90% of a continuous silicone fatty phase comprising at least one silicone oil and between 1 and 4% of cetyl PEG/PPG-10/1 dimethicone and between 1 and 6% of cyclopentasiloxane and PEG/PPG-19/19 dimethicone, as silicone surfactants having an HLB of less than or equal to 10, - an aqueous phase dispersed in said continuous fatty phase, - a dispersion of gas droplets having a mean diameter of between 10 nm and 1 μm, - a stabilizing system for stabilizing the dispersion of gas droplets, comprising between 0.8 and 5% of PEG-150 distearate as surfactant having an HLB of greater than or equal to 16 and between 0.01 and 1% of sodium polyacrylate as hydrophilic gelling compound.
A vehicle control apparatus that limits drive force of a vehicle upon simultaneous performance of an accelerator operation and a brake operation, wherein the vehicle control apparatus uses different methods for detecting the brake operation according to whether the simultaneous performance has resulted from the accelerator operation followed by the brake operation or from the brake operation followed by the accelerator operation.
A wavelength conversion device (100, 200, 300), comprising a substrate (130, 230, 330), a reflective layer (120, 220, 320), and a light emitting layer (110, 210, 310) stacked successively, wherein the reflective layer (120, 220, 320) contains reflective particles for reflecting light, and characterized in that the reflective layer (120, 220, 320) further contains auxiliary particles for filling voids between the reflective particles, and a first binder for binding the reflective particles and the auxiliary particles to form the reflective layer (120, 220, 320), and wherein the light emitting layer (110, 210, 310) contains a wavelength conversion material and a second binder, the reflective particles are aluminum oxide particles and the auxiliary particles are titanium oxide particles, wherein a thickness of the reflective layer (120, 220, 320) is less than 70 μm, and a reflectivity of the reflective layer (120, 220, 320) for visible light is higher than 95%.
A vectoring controller for configuring a vectoring processor that jointly processes Discrete Multi-Tone DMT communication signals (u 1..u N; y 1..y N) to be transmitted over, respectively received from, a plurality of N subscriber lines (L 1..L N) according to a vectoring matrix ( P k; Q k), and adapted, for given ones (k) of a plurality of tones: - to enable the given tone for direct data communication over a first set of N-Mk targeted lines (A k) out of the N subscriber lines, and to disable the given tone for direct data communication over a second disjoint set of Mk supporting lines (B k) out of the N subscriber lines, M k denoting a non-null positive integer, - to configure the vectoring matrix to use an available transmit power, respectively an available receive power, at the given tone over the second set of M k supporting lines for enhancement of data signal gains at the given tone over the first set of N-M k targeted lines, charachterized in that the vectoring controller is further adapted to distribute targeted and supporting roles across the N subscriber lines while iterating through the plurality of tones in sequence in order to achieve respective target data rates over the N subscriber lines, and wherein the vectoring controller is further adapted, during the respective iterations, to update respective data rates achievable over the N subscriber lines given the so-enabled and so-disabled tones and the vectoring matrices configured so far, and to determine the first and second sets of lines based on the updated data rates. - to enable the given tone for direct data communication over a first set of N-Mk targeted lines (A k) out of the N subscriber lines, and to disable the given tone for direct data communication over a second disjoint set of Mk supporting lines (B k) out of the N subscriber lines, M k denoting a non-null positive integer, - to configure the vectoring matrix to use an available transmit power, respectively an available receive power, at the given tone over the second set of M k supporting lines for enhancement of data signal gains at the given tone over the first set of N-M k targeted lines,
A dual roll laminating film cartridge (104, 104') comprising: a body defining a first end supporting a first end of a first roll of continuous translucent laminating film and a first end of a second roll of continuous translucent laminating film, the body further defining a second end supporting a second end of the first roll and a second end of the second roll, wherein facing surfaces of the films extended from the first and second rolls in an advancing direction are coated with a heat-activated adhesive; a bridge extending between the first and second ends of the body at a position between the first and second rolls, the bridge defining an article chute for the reception of articles to be laminated by the films of the first and second rolls; and a code indicative of one or more characteristics of the film of the first and second rolls, the code comprising a predetermined flag pattern of coding tabs that project outward from the body, wherein the predetermined flag pattern of coding tabs includes frangible coding tabs for coding the cartridge by selectively being broken off or left intact. a body defining a first end supporting a first end of a first roll of continuous translucent laminating film and a first end of a second roll of continuous translucent laminating film, the body further defining a second end supporting a second end of the first roll and a second end of the second roll, wherein facing surfaces of the films extended from the first and second rolls in an advancing direction are coated with a heat-activated adhesive; a bridge extending between the first and second ends of the body at a position between the first and second rolls, the bridge defining an article chute for the reception of articles to be laminated by the films of the first and second rolls; and a code indicative of one or more characteristics of the film of the first and second rolls, the code comprising a predetermined flag pattern of coding tabs that project outward from the body, wherein the predetermined flag pattern of coding tabs includes frangible coding tabs for coding the cartridge by selectively being broken off or left intact.
A method comprising: iteratively performing: a) receiving, by a steering application executing on a vehicle control module: a steering control input to control a steered wheel of a vehicle; a measured value (θ 2, ω 2) of a steering control attribute related to the steered wheel; and a measured value (ω 3) of a traction control attribute related to a traction wheel of the vehicle; b) based on the steering control input, the measured value (θ 2, ω 2) of the steering control attribute and the measured value (ω 3) of the traction control attribute, determining, by the steering application: a first setpoint value (θ 1, ω 1) of the steering control attribute related to the steered wheel; and a target steering angle (θ T) of the steered wheel of the vehicle; c) receiving, by a traction application executing on the vehicle control module of the vehicle: a traction speed control input to control the traction wheel of the vehicle; and the target steering angle (θ T), from the steering application; and d) based on the traction speed control input and the target steering angle (θ T), determining, by the traction application: a second setpoint value (τ 1, ω 4) of the traction control attribute. a) receiving, by a steering application executing on a vehicle control module: a steering control input to control a steered wheel of a vehicle; a measured value (θ 2, ω 2) of a steering control attribute related to the steered wheel; and a measured value (ω 3) of a traction control attribute related to a traction wheel of the vehicle; a steering control input to control a steered wheel of a vehicle; a measured value (θ 2, ω 2) of a steering control attribute related to the steered wheel; and a measured value (ω 3) of a traction control attribute related to a traction wheel of the vehicle; b) based on the steering control input, the measured value (θ 2, ω 2) of the steering control attribute and the measured value (ω 3) of the traction control attribute, determining, by the steering application: a first setpoint value (θ 1, ω 1) of the steering control attribute related to the steered wheel; and a target steering angle (θ T) of the steered wheel of the vehicle; a first setpoint value (θ 1, ω 1) of the steering control attribute related to the steered wheel; and a target steering angle (θ T) of the steered wheel of the vehicle; c) receiving, by a traction application executing on the vehicle control module of the vehicle: a traction speed control input to control the traction wheel of the vehicle; and the target steering angle (θ T), from the steering application; and a traction speed control input to control the traction wheel of the vehicle; and the target steering angle (θ T), from the steering application; and d) based on the traction speed control input and the target steering angle (θ T), determining, by the traction application: a second setpoint value (τ 1, ω 4) of the traction control attribute.
Construction set, including a drainage fitting base body (1; 800) and at least two different triggering modules (200; 250; 300; 350; 400) for respectively different triggering types, wherein the drainage fitting base body (1; 800) comprises a valve pipe, liftable in a vertical direction, on the lower end of which a sealing element of a drainage valve is arranged, and a housing at least partially surrounding the valve pipe, wherein, by lifting the valve pipe, a flushing process is triggerable, and wherein the drainage fitting base body (1; 800), by means of connecting means, is selectively connectable with one of the triggering modules (200; 250; 300; 350; 400), to form a drainage fitting (500; 510; 520; 530; 550; 600) for installation in a flushing tank, wherein each of the triggering modules (200; 250; 300; 350; 400) comprises a triggering actuation means with a casing tube, which comprises an external thread, to actuate the valve pipe, characterized in that a positioning means is provided for the positioning of the triggering actuation means, wherein the positioning means comprises a central base and two tongues, arranged oppositely and extending downwardly, wherein the tongues respectively comprise latching projections and recesses lying therebetween, and the housing of the drainage fitting base body (1; 800) comprises tabs and locking elements for the releasable fastening of the positioning means, wherein the positioning means can be arranged on the drainage fitting base body (1; 800) in that the tongues are inserted into the tabs and are latched with a locking element each, wherein the respective recess, with the two adjoining latching projections, engages around the locking element, wherein the positioning means comprises a carriage displaceable in x-direction, wherein two rails are arranged on the carriage, on which rails a pushing element carrier is arranged displaceably in y-direction, wherein the pushing element carrier comprises a central perforation with an internal thread, which corresponds to the external thread of the casing tube, so that the casing tube is screwable into the pushing element carrier, and can be aligned, in its vertical height, in z-direction.