mhurhangee/ep-ind-claims huggingface dataset:
A method for three-dimensional or multi-view video encoding or decoding of texture data in a dependent view, the method comprising: receiving input data associated with a current texture block in the dependent view; deriving an estimated disparity vector to locate a corresponding texture block in a coded view, wherein said deriving the estimated disparity vector is based on disparity vector candidates for the current texture block in the dependent view; identifying a collocated depth block in the coded view collocated with the corresponding texture block in the coded view; deriving virtual depth information for the dependent view based on the collocated depth block in the coded view, wherein the step of deriving virtual depth information for the dependent view based on the collocated depth block in the coded view comprises using the collocated depth of the coded view as virtual depth for the current block, and the virtual depth information for the dependent view comprises the virtual depth for the current block; and applying encoding or decoding process to the input data utilizing the virtual depth information; wherein if a first disparity vector candidate associated with an upper-left neighboring block is more similar to a second disparity vector candidate associated with an upper neighboring block than to a third disparity vector candidate associated with a left neighboring block, the second disparity vector candidate is selected as the estimated disparity vector; and otherwise, the third disparity vector candidate is selected as the estimated disparity vector. receiving input data associated with a current texture block in the dependent view; deriving an estimated disparity vector to locate a corresponding texture block in a coded view, wherein said deriving the estimated disparity vector is based on disparity vector candidates for the current texture block in the dependent view; identifying a collocated depth block in the coded view collocated with the corresponding texture block in the coded view; deriving virtual depth information for the dependent view based on the collocated depth block in the coded view, wherein the step of deriving virtual depth information for the dependent view based on the collocated depth block in the coded view comprises using the collocated depth of the coded view as virtual depth for the current block, and the virtual depth information for the dependent view comprises the virtual depth for the current block; and applying encoding or decoding process to the input data utilizing the virtual depth information; wherein if a first disparity vector candidate associated with an upper-left neighboring block is more similar to a second disparity vector candidate associated with an upper neighboring block than to a third disparity vector candidate associated with a left neighboring block, the second disparity vector candidate is selected as the estimated disparity vector; and otherwise, the third disparity vector candidate is selected as the estimated disparity vector.
A chaotic hand mixer for chaotic mixing of food products comprising at least one propeller for mixing of food products, at least one DC motor for rotating the propeller, a socket for powering the DC motor, characterized in that it comprises a control card performing logistic map to generate chaotic signal for driving the DC motor by means of a chaotic signal or a constant speed signal and at least one button which allows selection of operation settings between a chaotic mode and a constant speed mode and adaptation of the DC motor's speed.
Suction nozzle for a vacuum cleaner for sucking up dirt and/or dust from a floor by means of a suction air flow, comprising a housing, a suction chamber formed inside the housing, a suction channel for guiding the suction air flow and leading to the suction chamber, and a suction mouth configured as the bottom opening of the suction chamber, wherein the suction mouth has a central suction mouth section and two lateral suction mouth sections, and wherein the suction mouth is configured such that a proportion of ≥ 40% and ≤ 65% of the suction air flow flows through the central suction mouth section, characterised in that the two lateral suction mouth sections surround the central suction mouth section, wherein the lateral suction mouth sections are each delimited by inner and outer lateral fluid seal means extending from the suction channel as far as the sides of the suction nozzle and configured as bristle strips, as single- or multi-row arrangement of bristle tufts, as a sealing lip and/or as a combination of these, such that the central suction mouth section is delimited by the inner lateral fluid seal means of the respective lateral suction mouth sections.
A line replaceable unit configured to be inserted into a slot within a modular assembly, the line replaceable unit including: a coolant interface including a quick disconnect block with a flat surface configured to abut a counterpart surface on a fluid distribution manifold within a chassis for the modular assembly when the line replaceable unit is inserted into the slot within the modular assembly, the flat surface including: multiple quick disconnect fluid coupling fittings configured to mate with counterpart fittings on the fluid distribution manifold when the line replaceable unit is inserted into the slot within the modular assembly; a seal surrounding the multiple quick disconnect fluid coupling fittings on the flat surface, and configured to be compressed against the counterpart surface; and one or more alignment pins projecting from the flat surface and configured to be received by one or more corresponding guide holes within the counterpart surface. multiple quick disconnect fluid coupling fittings configured to mate with counterpart fittings on the fluid distribution manifold when the line replaceable unit is inserted into the slot within the modular assembly; a seal surrounding the multiple quick disconnect fluid coupling fittings on the flat surface, and configured to be compressed against the counterpart surface; and one or more alignment pins projecting from the flat surface and configured to be received by one or more corresponding guide holes within the counterpart surface.
Microparticles comprising: (a) gelatin, collagen, or a mixture thereof; and (b) a biodegradable anionic polymer; wherein the biodegradable anionic polymer is oxidized chondroitin sulfate, oxidized dextran sulfate, or a mixture thereof.
A composite hybrid cord comprising: i) a core comprising a first bundle of synthetic filaments having a filament tenacity of from 10 to 40 grams per decitex; and ii) a plurality of cabled strands helically wound around the core, each cabled strand comprising of a plurality of metal strands helically wound around a center second bundle of synthetic filaments the second bundle of synthetic filaments having a filament tenacity of from 10 to 40 grams per decitex and wherein synthetic filaments of the first and second bundles have an elongation at break ranging from 0.75% to 2.8% and wherein (a) the ratio of the largest cross sectional dimension of the first bundle of synthetic filaments to the largest cross sectional dimension of the second bundle of synthetic filaments is in the range of 1.5:1 to 20:1, and (b) the metallic filaments of the cabled strands have an elongation at break that is no more than 24 percent different from the elongation at break of the synthetic filaments of the first and second bundles. i) a core comprising a first bundle of synthetic filaments having a filament tenacity of from 10 to 40 grams per decitex; and ii) a plurality of cabled strands helically wound around the core, each cabled strand comprising of a plurality of metal strands helically wound around a center second bundle of synthetic filaments the second bundle of synthetic filaments having a filament tenacity of from 10 to 40 grams per decitex and wherein synthetic filaments of the first and second bundles have an elongation at break ranging from 0.75% to 2.8% and wherein (a) the ratio of the largest cross sectional dimension of the first bundle of synthetic filaments to the largest cross sectional dimension of the second bundle of synthetic filaments is in the range of 1.5:1 to 20:1, and (b) the metallic filaments of the cabled strands have an elongation at break that is no more than 24 percent different from the elongation at break of the synthetic filaments of the first and second bundles. (a) the ratio of the largest cross sectional dimension of the first bundle of synthetic filaments to the largest cross sectional dimension of the second bundle of synthetic filaments is in the range of 1.5:1 to 20:1, and (b) the metallic filaments of the cabled strands have an elongation at break that is no more than 24 percent different from the elongation at break of the synthetic filaments of the first and second bundles.
Product discharge unit for taking product rows from a production flow conveyed on a main belt in a main conveying direction and for transferring the product rows to a discharge belt running transversely to the main conveying direction for supplying to a packaging machine, the main belt being a discharge switch having a vertically pivotable discharge-side belt nose, having a waiting belt unit that is arranged next to the discharge belt below the main belt and comprises a waiting belt, which is displaceable by means of a displacement device for horizontal displacement as a whole in or counter to the main conveying direction, for taking product rows from the main belt and transferring the product rows to the discharge belt at a different time from the main belt, characterized in that the waiting belt unit having the waiting belt and the discharge belt is retractable transversely to the main conveying direction and counter to the conveying direction of the discharge belt.
A computer-implemented method comprising: retrieving, by at least one computer processor, a first set of television program data for television programming provided on a plurality of television channels; retrieving, by at least one computer processor, a second set of television program data for television programming provided on a requested television channel; comparing, by at least one computer processor, the retrieved first set of television program data for television programming provided on the plurality of television channels to the second set of television program data for television programming provided on a requested television channel; in response to the comparing, determining, by at least one computer processor, which one of the plurality of television channels matches the requested television channel based on the comparison of the retrieved first set of television program data for television programming provided on the plurality of television channels to the second set of television program data for television programming provided on the requested television channel; and in response to the determining, retrieving, by at least one computer processor, a channel identifier for the one of the plurality of television channels that matches the requested television channel, the channel identifier associated with a first service provider that provides access to the plurality of television channels. retrieving, by at least one computer processor, a first set of television program data for television programming provided on a plurality of television channels; retrieving, by at least one computer processor, a second set of television program data for television programming provided on a requested television channel; comparing, by at least one computer processor, the retrieved first set of television program data for television programming provided on the plurality of television channels to the second set of television program data for television programming provided on a requested television channel; in response to the comparing, determining, by at least one computer processor, which one of the plurality of television channels matches the requested television channel based on the comparison of the retrieved first set of television program data for television programming provided on the plurality of television channels to the second set of television program data for television programming provided on the requested television channel; and in response to the determining, retrieving, by at least one computer processor, a channel identifier for the one of the plurality of television channels that matches the requested television channel, the channel identifier associated with a first service provider that provides access to the plurality of television channels.
A method of encoding or decoding digital video content, said digital video content comprising a stream of pictures which can each be intra, predicted, or bi-predicted pictures, each of said pictures comprising macroblocks, said method comprising the steps of: selecting to encode or decode each pair of vertically adjacent macroblocks in a frame mode or a field mode; arranging said pair of macroblocks into frame macroblocks or field macroblocks according to the selected one of said frame mode or said field mode; and encoding or decoding said frame macroblocks or said field macroblocks, wherein the step of arranging said pair of macroblocks into frame macroblocks or field macroblocks includes the step of: in said frame mode, jointly processing two fields in said pair of macroblocks, said pair of macroblocks being divided into frame macroblocks, and each of said frame macroblocks including both top and bottom field pixels; in said field mode, separately processing two fields of said pair of macroblocks, said pair of macroblocks being split into field macroblocks, and each of said field macroblocks including either top or bottom field pixels, and wherein said frame macroblocks and said field macroblocks are the same size. selecting to encode or decode each pair of vertically adjacent macroblocks in a frame mode or a field mode; arranging said pair of macroblocks into frame macroblocks or field macroblocks according to the selected one of said frame mode or said field mode; and encoding or decoding said frame macroblocks or said field macroblocks, wherein the step of arranging said pair of macroblocks into frame macroblocks or field macroblocks includes the step of: in said frame mode, jointly processing two fields in said pair of macroblocks, said pair of macroblocks being divided into frame macroblocks, and each of said frame macroblocks including both top and bottom field pixels; in said field mode, separately processing two fields of said pair of macroblocks, said pair of macroblocks being split into field macroblocks, and each of said field macroblocks including either top or bottom field pixels, and wherein said frame macroblocks and said field macroblocks are the same size. in said frame mode, jointly processing two fields in said pair of macroblocks, said pair of macroblocks being divided into frame macroblocks, and each of said frame macroblocks including both top and bottom field pixels; in said field mode, separately processing two fields of said pair of macroblocks, said pair of macroblocks being split into field macroblocks, and each of said field macroblocks including either top or bottom field pixels, and wherein said frame macroblocks and said field macroblocks are the same size.
A chair (1, 31, 34; 1a, 31a, 34a) comprising, - a continuous support element, a movement mechanism and a frame, - wherein the support element comprises a seat region, which forms a seat part, - wherein the support element comprises a back region, which forms a back part, - wherein the support element comprises a transition region, which connects the seat region and the back region, - wherein the support element uses elastic deformation to compensate for a relative movement between the back region and the seat region, which occurs when the loading to which the chair (1, 31, 34; 1a, 31a, 34) is subjected, is changed by the person sitting on it, - wherein the movement mechanism comprises a torsion element, - wherein the torsion element supports the back part and controls the inclination of the back part, - wherein the back part of the support element is connected to the torsion element only above a lordosis support, characterized in that - the movement mechanism is arranged between the frame and the support element, - that the movement mechanism comprises a first rocker, a second rocker and a base body, - that the second rocker is rotatably hinged to the base body and is rotatably hinged to a front half of the seat part, - and that the first rocker is rotatably hinged to the base body, is rotatably hinged to a rear half of the seat part, and comprises the torsion element, which is connected to the back region above a lordosis support. - a continuous support element, a movement mechanism and a frame, - wherein the support element comprises a seat region, which forms a seat part, - wherein the support element comprises a back region, which forms a back part, - wherein the support element comprises a transition region, which connects the seat region and the back region, - wherein the support element uses elastic deformation to compensate for a relative movement between the back region and the seat region, which occurs when the loading to which the chair (1, 31, 34; 1a, 31a, 34) is subjected, is changed by the person sitting on it, - wherein the movement mechanism comprises a torsion element, - wherein the torsion element supports the back part and controls the inclination of the back part, - wherein the back part of the support element is connected to the torsion element only above a lordosis support, characterized in that - the movement mechanism is arranged between the frame and the support element, - that the movement mechanism comprises a first rocker, a second rocker and a base body, - that the second rocker is rotatably hinged to the base body and is rotatably hinged to a front half of the seat part, - and that the first rocker is rotatably hinged to the base body, is rotatably hinged to a rear half of the seat part, and comprises the torsion element, which is connected to the back region above a lordosis support.
A method of operating a solenoid valve assembly, wherein the solenoid is driven by a drive voltage, the method comprising the steps of: applying a positive overboost voltage across the solenoid to actuate a moveable plunger to open or close a flow path through the valve assembly, wherein the overboost voltage comprises a voltage sufficient to dissipate at least two times the nominal power of the valve assembly if the overboost voltage were applied for a time period sufficient to allow the current through the solenoid to reach a steady state; further characterized by monitoring the solenoid closure time over a plurality of different energising and de-energising cycles of the solenoid; and generating an output to indicate a need for valve maintenance based on changes to the monitored solenoid closure time between at least one first measured cycle and at least one second measured cycle. applying a positive overboost voltage across the solenoid to actuate a moveable plunger to open or close a flow path through the valve assembly, wherein the overboost voltage comprises a voltage sufficient to dissipate at least two times the nominal power of the valve assembly if the overboost voltage were applied for a time period sufficient to allow the current through the solenoid to reach a steady state; further characterized by monitoring the solenoid closure time over a plurality of different energising and de-energising cycles of the solenoid; and generating an output to indicate a need for valve maintenance based on changes to the monitored solenoid closure time between at least one first measured cycle and at least one second measured cycle.
A saddle-ride vehicle comprising: a front fork that rotatably supports a front wheel; a steering shaft that is coupled to the front fork and is steerably supported by a vehicle body frame; and a steering system in which a steering handlebar pipe is fixed to a steering handlebar holder that is provided above the steering shaft, wherein a visor is provided above the steering handlebar holder, and the visor protrudes toward outside of the steering handlebar holder, which is back, forth, right, and left, characterized by a voltage converter that lowers a voltage supplied form a battery mounted on the saddle-ride vehicle is fixed to the visor, wherein the visor and the voltage converter are integrated into a small set and are attachable to the saddle-ride vehicle, wherein the steering handlebar holder includes a left holder (41L, 42L) and a right holder (41R, 42R) which are divisionally arranged at right and left so as to sandwich a steering axis line, and the voltage converter is disposed in front of the steering handlebar holder of the steering system so as to be located between the left holder (41L, 42L) and the right holder (41R, 42R) and, or the voltage converter is disposed in front of a steering axis line of the steering shaft in a side view of a vehicle, or the voltage converter is located at a position higher than the steering handlebar pipe, a front fork that rotatably supports a front wheel; a steering shaft that is coupled to the front fork and is steerably supported by a vehicle body frame; and a steering system in which a steering handlebar pipe is fixed to a steering handlebar holder that is provided above the steering shaft, wherein
A method for use with a graphics processing unit comprising: using configuration information, which is provided to the graphics processing unit, prior to rendering a batch of graphics primitives to make a determination whether or not a unified shader unit, which is capable of performing as a vertex shader that operates on vertex data and is capable of performing as a fragment shader that operates on pixel data, is to bypass fragment shading; performing vertex shading using the unified shader unit; bypassing fragment shading by the unified shader unit based on a determination for the unified shader unit to bypass fragment shading; and performing fragment shading using a processing unit other than the unified shader unit based on the determination for the unified shader unit to bypass fragment shading. using configuration information, which is provided to the graphics processing unit, prior to rendering a batch of graphics primitives to make a determination whether or not a unified shader unit, which is capable of performing as a vertex shader that operates on vertex data and is capable of performing as a fragment shader that operates on pixel data, is to bypass fragment shading; performing vertex shading using the unified shader unit; bypassing fragment shading by the unified shader unit based on a determination for the unified shader unit to bypass fragment shading; and performing fragment shading using a processing unit other than the unified shader unit based on the determination for the unified shader unit to bypass fragment shading.
A bulk solution containing (a) epoprostenol or a salt thereof, (b) arginine, and (c) sodium hydroxide, wherein the bulk solution has a pH of 13 or higher.