mhurhangee/ep-ind-claims huggingface dataset:
A method of encoding video data, the method comprising: receiving video data comprising a plurality of video blocks, the plurality of video blocks comprising a plurality of pixel values in a YUV or YC B C R color space; obtaining color gamut scalability parameters comprising splitting the YUV or YC B C R color space into a plurality of rectangular cuboid partitions, each of the plurality of rectangular cuboid partitions comprising at least one partition boundary between the plurality of rectangular cuboid partitions; identifying pixel values in the plurality of rectangular cuboid partitions that comprise characteristics that may cause the obtained CGS parameters to produce artifacts when decoding the plurality of video blocks, wherein identifying pixel values in a rectangular cuboid partition comprises, for each partition boundary of the rectangular cuboid partition, collecting all pixel values that fall within a threshold value of the partition boundary in a list; identifying blocks of the plurality of video blocks that contain the pixel values that comprise the characteristics that may cause the obtained CGS parameters to produce artifacts when decoding the plurality of video blocks; disabling an inter-layer prediction mode for the identified blocks; and encoding the plurality of video blocks using a scalable video coding process with the obtained CGS parameters. receiving video data comprising a plurality of video blocks, the plurality of video blocks comprising a plurality of pixel values in a YUV or YC B C R color space; obtaining color gamut scalability parameters comprising splitting the YUV or YC B C R color space into a plurality of rectangular cuboid partitions, each of the plurality of rectangular cuboid partitions comprising at least one partition boundary between the plurality of rectangular cuboid partitions; identifying pixel values in the plurality of rectangular cuboid partitions that comprise characteristics that may cause the obtained CGS parameters to produce artifacts when decoding the plurality of video blocks, wherein identifying pixel values in a rectangular cuboid partition comprises, for each partition boundary of the rectangular cuboid partition, collecting all pixel values that fall within a threshold value of the partition boundary in a list; identifying blocks of the plurality of video blocks that contain the pixel values that comprise the characteristics that may cause the obtained CGS parameters to produce artifacts when decoding the plurality of video blocks; disabling an inter-layer prediction mode for the identified blocks; and encoding the plurality of video blocks using a scalable video coding process with the obtained CGS parameters.
Method for preparation of compound of formula; the method comprises two steps, the two steps are a step and a step; step comprises a reaction (Q1-reac); reaction (Q1-reac) is a reaction of compound of formula with a reagent (Q1-reag); R1 is Br, Cl, or I; reagent (Q1-reag) is selected from the group consisting of lithium, magnesium, aluminum, zinc, calcium, propylmagnesium chloride, propylmagnesium bromide, butyllithium and mixtures thereof; step comprises a reaction (Q2-reac); reaction (Q2-reac) is a reaction of the reaction product of reaction (Q1-reac) with chloroacetone; the reaction product of reaction (Q2-reac) is compound of formula (XXII); which is converted to compound of formula.
A vehicle occupant restraint system comprising an airbag which has an outer wall including a front wall, a rear wall and a filling opening, the outer wall having an impact portion for the occupant, comprising an internal flow passage formed by flexible material and positioned inside the airbag which flow passage includes an inlet end adjacent to the filling opening and an opposite outlet end which is directed, relating to the completely deployed state of the airbag, to the impact portion and ends freely at a distance from the latter, wherein at least one outlet passage via which gas can flow out of the flow passage to an associated outlet opening at the outer wall branches off the flow passage, wherein a shutoff means for the flow passage is provided which at least reduces gas outlet through the outlet end if an occupant falls below a minimum distance from the rear wall, characterized in that the shutoff means comprises at least one tensile means which can at least partially close the flow passage downstream of a branching point of the outlet passage in an initial state prior to deployment and until reaching a predetermined partial deployment.
An inflator comprising an outer casing which includes at least two interconnected casing parts in the form of a diffuser shell having discharge orifices to the outside and a cover directly connected to the diffuser shell, wherein at least first and second combustion chambers (30, 36) are provided inside the inflator and wherein the first combustion chamber is delimited by an inner wall and the second combustion chamber is located inside the space delimited by the diffuser shell and the cover, wherein the diffuser shell and/or the cover comprise a deep-drawn portion shaped into an indentation and forming at least partly a peripheral portion of the inner wall, characterized in that a first ignition device associated with the first combustion chamber extends through an opening of the diffuser shell and of the cover.
An article for generating aerosol comprising a medium part and a filter part, wherein the filter part includes a cooling filter filled with a particulate coolant and the particulate coolant has an average length in the longitudinal direction of from 1.0 to 6.0 mm, wherein the filter part further comprises a tube filter which is located in front of the cooling filter and has a hollow hole having a size at which the particulate coolant does not pass, and wherein the tube filter has a cross-sectional area ratio of an outside of the tube filter and an inside of the hollow hole of from 1:0.10 to 1:0.24. wherein the filter part includes a cooling filter filled with a particulate coolant and the particulate coolant has an average length in the longitudinal direction of from 1.0 to 6.0 mm, wherein the filter part further comprises a tube filter which is located in front of the cooling filter and has a hollow hole having a size at which the particulate coolant does not pass, and wherein the tube filter has a cross-sectional area ratio of an outside of the tube filter and an inside of the hollow hole of from 1:0.10 to 1:0.24.
Functional unit for adjusting a brake pad of a disk brake, having the following functional parts: - a guide rail, - two control spindles which are arranged parallel to and at a distance from one another in the guide rail and are held in an axially movable manner, and - a synchronising device for the synchronous adjustment of the control spindles, - a traction mechanism drive of the synchronising device with drive gears, each having a spur toothing system with which a traction mechanism engages, wherein the drive gears are held on the guide rail in an axially secured and rotatable manner relative to the longitudinal axis of the control spindles, wherein the functional parts are preassembled to form a module, characterised in that the drive gears are held non-rotatably but axially displaceably relative thereto on the control spindles, the module has an authenticity marking in the region of two adjacent functional parts which are movable relative to each other, and the control spindles are synchronised during the preassembly process. - a guide rail, - two control spindles which are arranged parallel to and at a distance from one another in the guide rail and are held in an axially movable manner, and - a synchronising device for the synchronous adjustment of the control spindles, - a traction mechanism drive of the synchronising device with drive gears, each having a spur toothing system with which a traction mechanism engages,
A footwear comprising a sole having an upper surface on a side that comes in contact with a bottom of a foot and a bottom surface on a side that touches a ground, wherein in a longitudinal cross-sectional view of the sole, an angle β is an angle between a straight line L1 and a plane that the bottom surface of the sole is in contact with, characterised in that the angle β ranges from 35 degrees to 75 degrees, an angle α is an angle between a straight line L3 and the plane that the bottom surface of the sole is in contact with, and ranges from 25 degrees to 65 degrees, a contact point A is positioned closest to a toe side of points where the bottom surface of the sole is in contact with the plane, a point B is a point of the sole closest to the toe side, the straight line L1 passes through the contact point A and the point B, a line L2 passes through the contact point A and is perpendicular to the plane that the bottom surface of the sole is in contact with, and intersects with the upper surface of the sole at an intersection point C, the straight L3 passes through the intersection point C and the point B, the angle α and the angle β satisfies the relation 1 ≦ ( β / α) ≦ 1.5, and a height of a toe spring is 7cm or more and 14 cm or less. wherein in a longitudinal cross-sectional view of the sole, an angle β is an angle between a straight line L1 and a plane that the bottom surface of the sole is in contact with, characterised in that the angle β ranges from 35 degrees to 75 degrees, an angle α is an angle between a straight line L3 and the plane that the bottom surface of the sole is in contact with, and ranges from 25 degrees to 65 degrees, an angle β is an angle between a straight line L1 and a plane that the bottom surface of the sole is in contact with, characterised in that the angle β ranges from 35 degrees to 75 degrees, an angle α is an angle between a straight line L3 and the plane that the bottom surface of the sole is in contact with, and ranges from 25 degrees to 65 degrees, a contact point A is positioned closest to a toe side of points where the bottom surface of the sole is in contact with the plane, a point B is a point of the sole closest to the toe side, the straight line L1 passes through the contact point A and the point B, a line L2 passes through the contact point A and is perpendicular to the plane that the bottom surface of the sole is in contact with, and intersects with the upper surface of the sole at an intersection point C, the straight L3 passes through the intersection point C and the point B, the angle α and the angle β satisfies the relation 1 ≦ ( β / α) ≦ 1.5, and a height of a toe spring is 7cm or more and 14 cm or less.
A control system for a hybrid electric powerplant of an aircraft, comprising: a heat engine controller configured to receive one or more power command settings from a power lever and to determine a heat engine setting and an electric motor setting, the heat engine controller configured to use the heat engine setting to control a fuel control unit of a heat engine as a function of the heat engine setting by sending a fuel flow command to the fuel control unit to control torque output by the heat engine, wherein the heat engine controller is configured to output the electric motor setting; an electric motor controller operatively connected to the heat engine controller, the electric motor controller configured to receive the electric motor setting from the heat engine controller and to control an electric motor system (109, 111) as a function of the electric motor setting to control torque output by an electric motor; a system protection module that is part of or connected to the heat engine controller and configured to provide one or more protection commands to directly control one or more heat engine protection systems and one or more electric motor protection systems; and an electric motor protection module that is part of the electric motor controller and configured to provide one or more protection commands to directly control the one or more electric motor protection systems. a heat engine controller configured to receive one or more power command settings from a power lever and to determine a heat engine setting and an electric motor setting, the heat engine controller configured to use the heat engine setting to control a fuel control unit of a heat engine as a function of the heat engine setting by sending a fuel flow command to the fuel control unit to control torque output by the heat engine, wherein the heat engine controller is configured to output the electric motor setting; an electric motor controller operatively connected to the heat engine controller, the electric motor controller configured to receive the electric motor setting from the heat engine controller and to control an electric motor system (109, 111) as a function of the electric motor setting to control torque output by an electric motor; a system protection module that is part of or connected to the heat engine controller and configured to provide one or more protection commands to directly control one or more heat engine protection systems and one or more electric motor protection systems; and an electric motor protection module that is part of the electric motor controller and configured to provide one or more protection commands to directly control the one or more electric motor protection systems.
Pigmented aqueous basecoat material comprising a carboxy-functional, dimer fatty acid-based reaction product which is preparable by reaction of (a) dimer fatty acids with (b) at least one compound with the general structural formula where R is a C 3 to C 6 alkylene radical and n is selected accordingly such that the polyether (b) possesses a number-average molecular weight of 120 to 6000 g/mol, components (a) and (b) are used in a molar ratio of at least 1/1 and the resulting reaction product possesses a number-average molecular weight of 1000 to 20000 g/mol and an acid number of 10 to 50 mg KOH/g, the number-average molecular weight being determined as specified in the description. (a) dimer fatty acids with (b) at least one compound with the general structural formula where R is a C 3 to C 6 alkylene radical and n is selected accordingly such that the polyether (b) possesses a number-average molecular weight of 120 to 6000 g/mol, components (a) and (b) are used in a molar ratio of at least 1/1 and the resulting reaction product possesses a number-average molecular weight of 1000 to 20000 g/mol and an acid number of 10 to 50 mg KOH/g, the number-average molecular weight being determined as specified in the description.
An LED lighting system, comprising: a base; a front end power supply electrically coupled to the base; an over-mold encapsulating the front end power supply; a solid state active heat sink electrically coupled to and driven by the front end power supply; and a plurality of light-emitting diodes thermally cooled by the active heat sink. a base; a front end power supply electrically coupled to the base; an over-mold encapsulating the front end power supply; a solid state active heat sink electrically coupled to and driven by the front end power supply; and a plurality of light-emitting diodes thermally cooled by the active heat sink.
Vacuum cleaner comprising a waste separation device which comprises an air outlet orifice, a suction device which comprises an air inlet orifice and a fan-motor, and a connection nozzle fluidically connecting the air inlet orifice of the suction device to the air outlet orifice of the waste separation device, the fan-motor being configured to generate an airflow through the air outlet orifice, through the connection nozzle and through the air inlet orifice, characterized in that the connection nozzle is bent and evolves continuously from the air outlet orifice of the waste separation device to the air inlet orifice of the suction device, and in that the connection nozzle has a passage cross-section which evolves continuously from the air outlet orifice of the waste separation device to the air inlet orifice of the suction device.
Assay-ready eukaryotic cell stored frozen in a composition comprising a cryopreservative and allopurinol, the concentration of allopurinol in the composition being in the range of 50 to 200 μM.
A coding method of performing compression coding of a moving picture by motion compensated prediction, said coding method comprising: • a compensated prediction step of performing the motion compensated prediction while allowing selecting different reference frames out of at least three reference frames, each of which is retained for the motion compensated prediction, for each of two segments, each of the two segments consisting of one or more second blocks, the second blocks obtained by sub-dividing each of a plurality of first blocks with pixel numbers greater than pixel numbers of the second block, the plurality of first blocks obtained by dividing one frame image unit of a moving picture, thereby determining one motion vector for each of the two segments, wherein each of the second blocks includes a plurality of pixels, wherein the first blocks are square-shaped macroblocks, wherein the two segments form a respective first block; and a reference frame information coding step of coding reference frame information designating a reference frame number which has been selected for each of the two segments and outputting the reference frame information together with a corresponding difference motion vector of the corresponding motion vector in a multiplexed form on a bitstream. • a compensated prediction step of performing the motion compensated prediction while allowing selecting different reference frames out of at least three reference frames, each of which is retained for the motion compensated prediction, for each of two segments, each of the two segments consisting of one or more second blocks, the second blocks obtained by sub-dividing each of a plurality of first blocks with pixel numbers greater than pixel numbers of the second block, the plurality of first blocks obtained by dividing one frame image unit of a moving picture, thereby determining one motion vector for each of the two segments, wherein each of the second blocks includes a plurality of pixels, wherein the first blocks are square-shaped macroblocks, wherein the two segments form a respective first block; and
A method for calibrating an automated wire bending machine, the method comprising: a) feeding a wire through an automated wire bending machine comprising at least one bending die (65, 66, 67, 68) and at least one bending pin (71,72), such that a wire portion extends beyond the bending die and the at least one bending pin; b) bending the wire to a target angle using one of the at least one bending pins by engaging the bending pin against a side of the wire opposed to one of the at least one bending dies and driving the bending pin against the wire to a predetermined position, thereby forming an angle in the wire; c) disengaging the bending pin from the wire such that the bending pin no longer contacts the wire and orienting the wire relative to a camera system by feeding wire from the automated wire bending machine such that the camera system captures an image of the bent portion of the wire, the angle formed in the wire, and a straight portion of the wire; d) capturing an image of the wire portion using the camera system; e) measuring an actual angle formed in the wire based at least in part on the image using a processor device associated with the camera system; f) storing in an electronic memory a value based on the actual angle formed in the wire; g) automatically adjusting one or more programmed bend angles associated with a manufactured wire part based on the value. a) feeding a wire through an automated wire bending machine comprising at least one bending die (65, 66, 67, 68) and at least one bending pin (71,72), such that a wire portion extends beyond the bending die and the at least one bending pin; b) bending the wire to a target angle using one of the at least one bending pins by engaging the bending pin against a side of the wire opposed to one of the at least one bending dies and driving the bending pin against the wire to a predetermined position, thereby forming an angle in the wire; c) disengaging the bending pin from the wire such that the bending pin no longer contacts the wire and orienting the wire relative to a camera system by feeding wire from the automated wire bending machine such that the camera system captures an image of the bent portion of the wire, the angle formed in the wire, and a straight portion of the wire; d) capturing an image of the wire portion using the camera system; e) measuring an actual angle formed in the wire based at least in part on the image using a processor device associated with the camera system; f) storing in an electronic memory a value based on the actual angle formed in the wire; g) automatically adjusting one or more programmed bend angles associated with a manufactured wire part based on the value.
At least one extra cellular matrix remodeling enzyme selected from the group consisting of matrix metalloproteinase -l and MMP-13, for use in increasing the rate of embryo implantation in a uterus of a mammal wherein the mammal is undergoing an assisted reproductive therapy program, wherein said at least one extra cellular matrix remodeling enzyme is administered to said uterus of said mammal.
A porous insulation substrate made of microfibers, wherein the porous insulation substrate comprises a layer of woven microfibers, the layer of woven microfibers comprises yarns of woven microfibers separated by holes there between, and a layer of non-woven microfibers disposed on the layer of woven microfibers on a first side, characterized in that at least a part of the non-woven microfibers are accumulated in the holes between the yarns and the thickness of the layer of non-woven microfibers varies in dependence on the locations of the holes in the layer of woven microfibers such that the layer of non-woven microfibers is thicker in said holes and is thinner on top of the yarns of the layer of woven microfibers, wherein the yarns includes a plurality of filaments and the diameter of said non-woven microfibers is smaller than the diameter of said filaments.
A pharmaceutical composition comprising at least one pharmaceutically acceptable excipient and at least one protein-bound cannabinoid - wherein the cannabinoid is selected from the group consisting of: Δ9-THC, Δ8-THC, tetrahydrocannabinoic acid (THCA), CBD, cannabidiolic acid (CBDA), cannabinol, cannabigerol, tetrahydrocannabivarin (THCV), cannabigerolic acid CBGA and cannabichromene, - wherein the cannabinoid is bound to a plasma protein that comprises albumin, and - wherein the ratio of protein to cannabinoid is between 20:1 to 1:1 according to a weight/weight basis. - wherein the cannabinoid is selected from the group consisting of: Δ9-THC, Δ8-THC, tetrahydrocannabinoic acid (THCA), CBD, cannabidiolic acid (CBDA), cannabinol, cannabigerol, tetrahydrocannabivarin (THCV), cannabigerolic acid CBGA and cannabichromene, - wherein the cannabinoid is bound to a plasma protein that comprises albumin, and - wherein the ratio of protein to cannabinoid is between 20:1 to 1:1 according to a weight/weight basis.