mhurhangee/ep-ind-claims huggingface dataset:
A method of decoding a motion vector for a current block of an encoded image that forms part of a bitstream, the method comprising: decoding a prediction mode of the current block from the bitstream; when the prediction mode of the current block is inter-prediction and a motion vector predictor of the current block is determined based on a motion vector predictor information indicating the motion vector predictor of the current block, receiving the motion vector predictor information from the bitstream, determining motion vector predictor candidates by using motion vectors of previously decoded blocks adjacent to the current block and determining the motion vector predictor of the current block which is one motion vector selected from among motion vector predictor candidates, based on the motion vector predictor information; and obtaining a motion vector of the current block based on the motion vector predictor and a differential vector obtained from the bitstream (1520, 1540), wherein the previously decoded blocks comprise a first block located on a lower-left side of the current block and located outside the current block, that is, directly below a lower-most block among left blocks adjacent to a left side of the current block, and a second block located on an upper side of the first block. decoding a prediction mode of the current block from the bitstream; when the prediction mode of the current block is inter-prediction and a motion vector predictor of the current block is determined based on a motion vector predictor information indicating the motion vector predictor of the current block, receiving the motion vector predictor information from the bitstream, determining motion vector predictor candidates by using motion vectors of previously decoded blocks adjacent to the current block and determining the motion vector predictor of the current block which is one motion vector selected from among motion vector predictor candidates, based on the motion vector predictor information; and obtaining a motion vector of the current block based on the motion vector predictor and a differential vector obtained from the bitstream (1520, 1540), wherein the previously decoded blocks comprise a first block located on a lower-left side of the current block and located outside the current block, that is, directly below a lower-most block among left blocks adjacent to a left side of the current block, and a second block located on an upper side of the first block.
A method for producing a fluorinated polymer, which comprises polymerizing a monomer mixture containing tetrafluoroethylene and a fluorinated monomer having a group convertible to a sulfonic acid group or a carboxylic acid group in a polymerization medium, wherein the polymerization medium contains as the main component a C 4-10 cyclic hydrofluorocarbon, wherein the content of the cyclic hydrofluorocarbon is at least 70 mass% in the entire polymerization medium not including monomer.
A method carried out by a processor, comprising: determining a phase of travel of a vehicle; determining a probability of hazardously misleading information (PHMI) for the corresponding phase of travel; determining a protection level based on the PHMI and based on global navigation satellite system (GNSS) measurements; and comparing the PL against an alert limit, wherein the PL is determined using the equation Q PL σ new, 0 + ∑ i = 1 Nss P fault, i ⋅ Q PL − T i σ new, i = PHMI, wherein Q (·) is the complementary error function, wherein Nss is a number of different position solutions computed using a subset of a full set of measurements, wherein P fault,i is a probability of failure of a satellite or satellites that are excluded from a particular position solution i of the number of different position solutions, wherein T i is a threshold limit for the difference between the full solution and the particular subsolution i given that there are no errors, wherein σ new,0 is a standard deviation of position error plus bias of a solution using the full set of measurements, wherein each position solution using the subset of the full set of measurements is characterized by σ new,i, wherein σ new,i is a standard deviation of position error plus a standard deviation of bias along an axis of interest, wherein the method further comprises upper-bounding the standard deviation of bias. determining a phase of travel of a vehicle; determining a probability of hazardously misleading information (PHMI) for the corresponding phase of travel; determining a protection level based on the PHMI and based on global navigation satellite system (GNSS) measurements; and comparing the PL against an alert limit, wherein the PL is determined using the equation Q PL σ new, 0 + ∑ i = 1 Nss P fault, i ⋅ Q PL − T i σ new, i = PHMI, wherein Q (·) is the complementary error function, wherein Nss is a number of different position solutions computed using a subset of a full set of measurements, wherein P fault,i is a probability of failure of a satellite or satellites that are excluded from a particular position solution i of the number of different position solutions, wherein T i is a threshold limit for the difference between the full solution and the particular subsolution i given that there are no errors, wherein σ new,0 is a standard deviation of position error plus bias of a solution using the full set of measurements, wherein each position solution using the subset of the full set of measurements is characterized by σ new,i, wherein σ new,i is a standard deviation of position error plus a standard deviation of bias along an axis of interest, wherein the method further comprises upper-bounding the standard deviation of bias.
A therapeutic composition, comprising an isolated aminoacyl-tRNA synthetase (AARS) polypeptide of about 50 to about 100 amino acids in length and comprising an amino acid sequence that is at least 95%, 98%, or 100% identical to SEQ ID NO:137, wherein the AARS polypeptide has at least one extracellular signaling activity and a solubility of at least about 5 mg/mL, and wherein the composition has a purity of at least about 95% on a protein basis and less than about 10 EU endotoxin / mg protein.
A composition comprising a NKG2D-Fc chimera and a pharmaceutically acceptable carrier, wherein the NKG2D-Fc chimera binds a NKG2D ligand, for its use for the treatment of an NKG2D ligand expressing cancer.
A plastic packaging component (12, 26) comprising: a thermoplastic or thermoset resin forming a matrix; and an electromagnetic spectrally detectable additive intermixed with said resin, said resin formed into a shape of the component; wherein said additive is stainless steel particulate characterized in that said additive has an average x-y-z linear extent such that at least 50% of additive particles are less than 100 microns and wherein the shape is one of: an aerosol package lid, an aerosol spray button, an aerosol spray tube, an aerosol package clip-on extension holder for said tube, a trigger sprayer or an integrated lid sprayer, a grease cartridge or a grease cap, a packing strap, a pail lid or a jar cap, a brush, or a plastic fiber towel sheet. a thermoplastic or thermoset resin forming a matrix; and an electromagnetic spectrally detectable additive intermixed with said resin, said resin formed into a shape of the component;
A vacuum pump, in particular a turbomolecular pump, or a rotation unit for a vacuum pump, in particular for a turbomolecular pump, comprising a rotor, a stator and a magnetic bearing, wherein the magnetic bearing has a rotor-side bearing part arranged at the rotor and a stator-side bearing part arranged at the stator; wherein the rotor-side bearing part and the stator-side bearing part have mutually oppositely disposed side surfaces (60, 62); wherein a gastight encapsulation is provided for the rotor-side bearing part and comprises a rotor-side protective wall which covers the side surface of the rotor-side bearing part; and/or wherein a gastight encapsulation is provided for the stator-side bearing part and comprises a stator-side protective wall which covers the side surface of the stator-side bearing part; wherein the rotor-side protective wall is welded to the rotor in a gastight manner; and/or wherein the stator-side protective wall is welded to the stator in a gastight manner, characterized in that the rotor-side protective wall and/or the stator-side protective wall (74, 104) has/have a thickness of at most 300 micrometers; in that the rotor-side protective wall is cold welded to the rotor by means of magnetic pulse deformation; and/or in that the stator-side protective wall is cold welded to the stator by means of magnetic pulse deformation.
A stamping plate for rotational stamping of labels, having a base plate, on the upper side of which at least one stamping line is provided, characterized in that at least one damping element connected fixedly to the lower side of the base plate is arranged at least in some places on a lower side of the base plate and in that the damping element has a thickness between 4 μm and 200 μm.
Proportional spool valve having a spool piston which can be switched from a neutral position into at least one first switching position via a pilot control which generates a pilot control force, a pressure port, a first pressure outlet, a return line and a first load pressure line which is connected to a load pressure outlet, wherein the pressure port is connected to the first pressure outlet and the first load pressure line in the first switching position, wherein a second load pressure line branches off from the first load pressure line, wherein the second load pressure line is connected to the return line and a pressure limiting valve is arranged in the second load pressure line, characterized in that the pilot control force acts as an additional force component in the opening direction of the pressure limiting valve, so that the force required to open the pressure limiting valve against an actuating device of the pressure limiting valve is reduced. wherein the pressure port is connected to the first pressure outlet and the first load pressure line in the first switching position, wherein a second load pressure line branches off from the first load pressure line, wherein the second load pressure line is connected to the return line and a pressure limiting valve is arranged in the second load pressure line, characterized in that the pilot control force acts as an additional force component in the opening direction of the pressure limiting valve, so that the force required to open the pressure limiting valve against an actuating device of the pressure limiting valve is reduced.
A method for encoding an input video into a bitstream, the input video comprising image data, the method comprising: a) performing disparity estimation (301, 501) based on reference pictures from a reference picture buffer and an input picture of the input video to obtain disparity parameters; b) performing disparity compensation (302, 502) by applying the disparity parameters obtained from performing disparity estimation to the reference pictures to generate a prediction picture or prediction regions; c) taking a difference between the input picture of the input video and the prediction picture or the prediction regions to provide residual information; d) converting (320, 520) the residual information from a floating point representation to a fixed point representation to provide converted residual information; e) performing transformation (305, 505) and quantization (310, 510) on the converted residual information to obtain processed residual information; and f) performing entropy encoding (315, 515) on the processed residual information to generate the bitstream, wherein the image data comprises fixed point data, further comprising before the performing disparity estimation and disparity compensation: converting the fixed point data from a fixed point representation to a floating point representation, wherein conversion parameters used in the fixed point data converting are signaled to a decoder. a) performing disparity estimation (301, 501) based on reference pictures from a reference picture buffer and an input picture of the input video to obtain disparity parameters; b) performing disparity compensation (302, 502) by applying the disparity parameters obtained from performing disparity estimation to the reference pictures to generate a prediction picture or prediction regions; c) taking a difference between the input picture of the input video and the prediction picture or the prediction regions to provide residual information; d) converting (320, 520) the residual information from a floating point representation to a fixed point representation to provide converted residual information; e) performing transformation (305, 505) and quantization (310, 510) on the converted residual information to obtain processed residual information; and f) performing entropy encoding (315, 515) on the processed residual information to generate the bitstream, wherein the image data comprises fixed point data, further comprising before the performing disparity estimation and disparity compensation: converting the fixed point data from a fixed point representation to a floating point representation, wherein conversion parameters used in the fixed point data converting are signaled to a decoder. converting the fixed point data from a fixed point representation to a floating point representation, wherein conversion parameters used in the fixed point data converting are signaled to a decoder.
Method for correcting a B0 inhomogeneity in a magnetic resonance scan with a magnetic resonance tomograph, wherein the B0 inhomogeneity is estimated from empirical values or is determined by a B0 field measurement with the magnetic resonance tomograph, wherein the magnetic resonance tomograph comprises a control unit, a radio frequency unit and a transmitting antenna, wherein the method comprises the steps: determination of a transmission signal by the control unit which is suitable for correcting the effect of the magnetic field inhomogeneity in an examination volume by means of the Bloch-Siegert effect; emitting the transmission signal into the examination volume. determination of a transmission signal by the control unit which is suitable for correcting the effect of the magnetic field inhomogeneity in an examination volume by means of the Bloch-Siegert effect; emitting the transmission signal into the examination volume.
Tunnel lining composed of at least two concrete elements each having at least one protective element connected to the concrete element, wherein the protective element has a protective portion which has a first side which faces the concrete element and on which there is provided at least one connecting element for producing a retaining connected between the protective portion and the concrete element, wherein the protective portion consists of at least one plastic, wherein the protective element has at least one protective element seal which is connected to the protective portion, wherein the connection to the protective portion is gas-tight and liquid-tight, wherein a joint is present between the at least two concrete elements arranged to form the tunnel lining, wherein the joint is sealed in a gas-tight and liquid-tight manner with respect to the tunnel interior by at least one protective element seal having a first sealing action, characterized in that at least one concrete element has at least one concrete element seal having a second sealing action that is arranged separately from the protective element and seals the joint in a gas- and liquid-tight manner with respect to the rock, in that the protective element seal has a lower sealing action than the concrete element seal, in that the tunnel lining is provided with drainage from a rock surrounding the tunnel lining into a tunnel formed by the tunnel lining, in that water permeability from the concrete element in the joint exists between the protective element seal and the concrete element seal, and in that the drainage through the joint between the at least two concrete elements occurs in the portion between the concrete element seal and the protective element seal and through the protective element seal.
A population of extruded and spheronized pellets, each extruded and spheronized pellet comprising at least 70% w/w cholestyramine and i. a combination of at least 6% w/w of a cellulose ether and at least 2% w/w of an acrylate copolymer; or ii. a combination of at least 5% w/w of a cellulose ether and at least 3% w/w of an acrylate copolymer; or iii. a combination of at least 6% w/w of a cellulose ether, at least 1% w/w of an acrylate copolymer and at least 10% w/w microcrystalline cellulose; or iv. a combination of at least 5% w/w of a cellulose ether, at least 2% w/w of an acrylate copolymer and at least 20% w/w microcrystalline cellulose. i. a combination of at least 6% w/w of a cellulose ether and at least 2% w/w of an acrylate copolymer; or ii. a combination of at least 5% w/w of a cellulose ether and at least 3% w/w of an acrylate copolymer; or iii. a combination of at least 6% w/w of a cellulose ether, at least 1% w/w of an acrylate copolymer and at least 10% w/w microcrystalline cellulose; or iv. a combination of at least 5% w/w of a cellulose ether, at least 2% w/w of an acrylate copolymer and at least 20% w/w microcrystalline cellulose.
A method for determining total radiated power from a plurality of antennas (6a-h) belonging to a radio network node, the method being performed in the radio network node and comprising the step of: obtaining an intermediate power value based on a sum of signals from couplers provided by each antenna of the plurality of antennas; characterized in the further steps of: obtaining antenna data affecting transmission weights applied for each individual antenna of the plurality of antennas; determining a power factor based on the antenna data; and calculating the total radiated power based on the intermediate power value and the power factor. obtaining antenna data affecting transmission weights applied for each individual antenna of the plurality of antennas; determining a power factor based on the antenna data; and calculating the total radiated power based on the intermediate power value and the power factor.
A method for transmitting uplink signals from a user equipment to a base station by a time domain transmission unit of a predetermined size, the method being characterized by comprising: receiving uplink scheduling grant information as to whether to apply the frequency hopping; mapping the uplink signals to resource blocks per the time domain transmission unit in accordance with a predetermined frequency hopping pattern using a subband hopping, if the received uplink scheduling grant information indicates to apply the subband hopping, wherein a system band for a transmission of the uplink signals comprises N RB UL resource blocks, and is divided into N sb subbands, wherein each of the subbands comprises N RB sb resource blocks, wherein each of the N RB sb resource blocks comprises a plurality of subcarriers, and wherein N RB sb is a plural number; and transmitting the resource block mapped uplink signals to the base station, wherein the subband hopping is defined such that the resource blocks to be used for mapping the uplink signals are given by using an index of RB(t), wherein: R ⁢ B t ⁢ = apre ⁢ det ⁢ ermined ⁢ reference ⁢ index ⁢ + a t * N R ⁢ B s ⁢ b m ⁢ o ⁢ d N R ⁢ B s ⁢ b * N s ⁢ b, wherein t indicates an index of the time domain transmission unit, and wherein a(t) indicates a random integer value. receiving uplink scheduling grant information as to whether to apply the frequency hopping; mapping the uplink signals to resource blocks per the time domain transmission unit in accordance with a predetermined frequency hopping pattern using a subband hopping, if the received uplink scheduling grant information indicates to apply the subband hopping, wherein a system band for a transmission of the uplink signals comprises N RB UL resource blocks, and is divided into N sb subbands, wherein each of the subbands comprises N RB sb resource blocks, wherein each of the N RB sb resource blocks comprises a plurality of subcarriers, and wherein N RB sb is a plural number; and transmitting the resource block mapped uplink signals to the base station, wherein the subband hopping is defined such that the resource blocks to be used for mapping the uplink signals are given by using an index of RB(t), wherein: R ⁢ B t ⁢ = apre ⁢ det ⁢ ermined ⁢ reference ⁢ index ⁢ + a t * N R ⁢ B s ⁢ b m ⁢ o ⁢ d N R ⁢ B s ⁢ b * N s ⁢ b, wherein t indicates an index of the time domain transmission unit, and wherein a(t) indicates a random integer value. R ⁢ B t ⁢ = apre ⁢ det ⁢ ermined ⁢ reference ⁢ index ⁢ + a t * N R ⁢ B s ⁢ b m ⁢ o ⁢ d N R ⁢ B s ⁢ b * N s ⁢ b, wherein t indicates an index of the time domain transmission unit, and wherein a(t) indicates a random integer value.
A method for immobilizing a plurality of cells with rigid cell wall or invertebrate embryos with rigid eggshell on a support of a device bearing a plurality of wells suitable for containing only one single cell or invertebrate embryo, wherein said cells or embryos have an oblong shape, wherein the cells or embryos are immobilized with the same orientation wherein the long axis of the cells or embryos is perpendicular to the support, and wherein: - the wells have a conical or frustoconical shape; - the width of the top of the wells is greater than the short axis of the cells or of the embryos to be immobilized in the wells; and - the width of the bottom of the wells is smaller than the short axis of the cells or of the embryos to be immobilized in the wells; the method comprising the step of placing said cells or embryos into the wells. - the wells have a conical or frustoconical shape; - the width of the top of the wells is greater than the short axis of the cells or of the embryos to be immobilized in the wells; and - the width of the bottom of the wells is smaller than the short axis of the cells or of the embryos to be immobilized in the wells;
Dust filter bag for use in a vacuum cleaner, comprising a single-layer or multi-layer bag wall that forms the outer face of the dust filter bag and is formed, at least in portions, of air-permeable filter material, comprising a bag inner chamber that is enclosed by the bag wall, one or more air-permeable dust-collector inserts being arranged in the bag inner chamber, at least one dust-collector insert being formed by at least two layers on top of one another, a first layer of the dust-collector insert comprising at least one cutout, characterised in that a second layer of the dust-collector insert is formed by at least a portion of said at least one cutout.