mhurhangee/ep-ind-claims huggingface dataset:
A decoding device comprising: circuitry configured to decode a bit stream to generate a quantized value; determine whether a transform skip is applied to a transform block on the basis of a received indication of a minimum block size of the transform block and of a maximum block size of the transform block for which the transform skip can be applied, wherein the circuitry is configured to determine that the transform skip can be applied to the transform block if a block size of the transform block is smaller than or equal to the maximum block size and larger than or equal to the minimum block size, and wherein the circuitry is configured to determine that the transform skip cannot be applied to the transform block if the block size of the transform block is larger than the maximum block size; and inversely quantize the generated quantized value by: in a case where the transform skip is applied to the transform block, using a flat matrix corresponding to the block size of the transform block; and in a case where the transform skip is not applied to the transform block, using a matrix other than the flat matrix. circuitry configured to decode a bit stream to generate a quantized value; determine whether a transform skip is applied to a transform block on the basis of a received indication of a minimum block size of the transform block and of a maximum block size of the transform block for which the transform skip can be applied, wherein the circuitry is configured to determine that the transform skip can be applied to the transform block if a block size of the transform block is smaller than or equal to the maximum block size and larger than or equal to the minimum block size, and wherein the circuitry is configured to determine that the transform skip cannot be applied to the transform block if the block size of the transform block is larger than the maximum block size; and inversely quantize the generated quantized value by: in a case where the transform skip is applied to the transform block, using a flat matrix corresponding to the block size of the transform block; and in a case where the transform skip is not applied to the transform block, using a matrix other than the flat matrix. in a case where the transform skip is applied to the transform block, using a flat matrix corresponding to the block size of the transform block; and in a case where the transform skip is not applied to the transform block, using a matrix other than the flat matrix.
A hydroponic plant container comprising: a body, said body having at least one wall and a bottom forming an interior volume, said body defining an opening, said opening providing access to said interior volume, said body having a first portion and a second portion, said first portion and said second portion being defined by the at least one wall, said first portion having an interior volume, said second portion having an interior volume, wherein said interior volume of said second portion is fluidly coupled to said interior volume of said first portion; wherein said second portion of said body is offset to said first portion and is configured to provide access to the interior volume of said first portion, characterised in that said first portion having a first upper perimeter edge and said second portion having a second upper perimeter edge, wherein said second upper perimeter edge is at a lower height than said first upper perimeter edge. a body, said body having at least one wall and a bottom forming an interior volume, said body defining an opening, said opening providing access to said interior volume, said body having a first portion and a second portion, said first portion and said second portion being defined by the at least one wall, said first portion having an interior volume, said second portion having an interior volume, wherein said interior volume of said second portion is fluidly coupled to said interior volume of said first portion; wherein said second portion of said body is offset to said first portion and is configured to provide access to the interior volume of said first portion, characterised in that said first portion having a first upper perimeter edge and said second portion having a second upper perimeter edge, wherein said second upper perimeter edge is at a lower height than said first upper perimeter edge.
An enamel composition that is lead-free, cadmium-free, bismuth-free, free of tantalum oxides and free of antimony oxides, the composition comprising a solids portion, wherein the solids portion comprises a frit portion, wherein the frit portion comprises, prior to firing: a. a glass frit, the frit comprising: i. 41 to 51% wt% SiO 2, ii. 6 to 17 wt% B 2 O 3, iii. 8.1 to 18 wt% TiO 2, iv. 5.1 to 13 wt% ZnO, v. 0.1 to 3 wt% Li 2 O, vi. 1 to 7.9 wt% K 2 O, vii. 1 to 7 wt% F, viii. 0.1 to 1.9 wt% Al 2 O 3, ix. 0,1 to 1.5% wt% ZrO 2, x. 5 to 12 wt% Na 2 O, and wherein the enamel composition further comprises b. 0.1-30 wt% pigment, c. 0.1-15 wt% crystalline seed material selected from the group consisting of zinc borates, zinc silicates, zinc titanates, aluminum silicates, and combinations thereof, and d. an organic vehicle. a. a glass frit, the frit comprising: i. 41 to 51% wt% SiO 2, ii. 6 to 17 wt% B 2 O 3, iii. 8.1 to 18 wt% TiO 2, iv. 5.1 to 13 wt% ZnO, v. 0.1 to 3 wt% Li 2 O, vi. 1 to 7.9 wt% K 2 O, vii. 1 to 7 wt% F, viii. 0.1 to 1.9 wt% Al 2 O 3, ix. 0,1 to 1.5% wt% ZrO 2, x. 5 to 12 wt% Na 2 O, and wherein the enamel composition further comprises i. 41 to 51% wt% SiO 2, ii. 6 to 17 wt% B 2 O 3, iii. 8.1 to 18 wt% TiO 2, iv. 5.1 to 13 wt% ZnO, v. 0.1 to 3 wt% Li 2 O, vi. 1 to 7.9 wt% K 2 O, vii. 1 to 7 wt% F, viii. 0.1 to 1.9 wt% Al 2 O 3, ix. 0,1 to 1.5% wt% ZrO 2, x. 5 to 12 wt% Na 2 O, b. 0.1-30 wt% pigment, c. 0.1-15 wt% crystalline seed material selected from the group consisting of zinc borates, zinc silicates, zinc titanates, aluminum silicates, and combinations thereof, and d. an organic vehicle.
A composition comprising at least one long chain polyunsaturated fatty acid (LC-PUFA), at least one probiotic and a mixture of oligosaccharides, said mixture containing at least one of Galβ1,4GlcNAcβ1,3Galβ1,4Glc (or lacto-N-neotetraose or LNnT), and Galβ1,3GlcNAcβ1,3Galβ1,4Glc (or lacto-N-tetraose or LNT), at least one N-acetylated oligosaccharide different from LNnT and LNT, at least one sialylated oligosaccharide and at least one neutral oligosaccharide, for use in increasing insulin sensitivity and/or reducing insulin resistance.
"PROCESS FOR REMOVING POLLUTANTS FROM A WATERCOURSE", this process being of the type understood by stages of: applying through quick mixing flocculant or coagulant material in a section of the watercourse to be treated; allowing a basin of flocculation to emerge from this section, so that an aggregation of suspended particles occurs downstream, defining flakes of larger dimensions; characterized by subjecting these aggregated particles of larger dimensions and density downstream from the watercourse to at least one dissolution and injection stage of pure oxygen coming from a concentration unit, and directed to dissolution units by pressurized mixers, forming a water/oxygen mixture with a high degree of oxygen concentration ranging from 50% to 95% to be injected into section from the watercourse; allowing a floatation basin to emerge along the watercourse from this section so that an agglomeration of the float material occurs downstream, whose floated and agglomerated material is verified downstream on the surface and along the banks of the watercourse being removed by the scraping of the surface of the watercourse; being that the pure and concentrated oxygen is selectively transferred to the treated water from a watercourse, making it possible to use a water recirculation rate of 70% to 80% lower than would be necessary if environmental air were used. applying through quick mixing flocculant or coagulant material in a section of the watercourse to be treated; allowing a basin of flocculation to emerge from this section, so that an aggregation of suspended particles occurs downstream, defining flakes of larger dimensions; characterized by subjecting these aggregated particles of larger dimensions and density downstream from the watercourse to at least one dissolution and injection stage of pure oxygen coming from a concentration unit, and directed to dissolution units by pressurized mixers, forming a water/oxygen mixture with a high degree of oxygen concentration ranging from 50% to 95% to be injected into section from the watercourse; allowing a floatation basin to emerge along the watercourse from this section so that an agglomeration of the float material occurs downstream, whose floated and agglomerated material is verified downstream on the surface and along the banks of the watercourse being removed by the scraping of the surface of the watercourse; being that the pure and concentrated oxygen is selectively transferred to the treated water from a watercourse, making it possible to use a water recirculation rate of 70% to 80% lower than would be necessary if environmental air were used.
A guiding arrangement (14, 16) for a retractable thruster assembly with a movable thruster support pipe, the guiding arrangement (14, 16) comprising: a foundation plate including: a water-averted side; a water-facing side opposing the water-averted side; and an opening extending between the water-averted side and the water-facing side for guiding the thruster support pipe; a first upper guide arranged at the water-averted side of the foundation plate; and a second upper guide arranged at the water-averted side of the foundation plate and opposing the first upper guide with respect to the opening; a first lower guide arranged at the water-facing side of the foundation plate; a second lower guide arranged at the water-facing side of the foundation plate and opposing the first lower guide with respect to the opening, wherein the first lower guide and the second upper guide are arranged such that an arc angle within the range from 25° to 75° is confined therebetween with respect to a center point of the opening. a foundation plate including: a water-averted side; a water-facing side opposing the water-averted side; and an opening extending between the water-averted side and the water-facing side for guiding the thruster support pipe; a water-averted side; a water-facing side opposing the water-averted side; and an opening extending between the water-averted side and the water-facing side for guiding the thruster support pipe; a first upper guide arranged at the water-averted side of the foundation plate; and a second upper guide arranged at the water-averted side of the foundation plate and opposing the first upper guide with respect to the opening; a first lower guide arranged at the water-facing side of the foundation plate; a second lower guide arranged at the water-facing side of the foundation plate and opposing the first lower guide with respect to the opening, wherein the first lower guide and the second upper guide are arranged such that an arc angle within the range from 25° to 75° is confined therebetween with respect to a center point of the opening.
Optical block comprising a first screen provided with a rear face oriented towards the interior of the optical block, at least one reflector (Ri) transferring photons towards said rear face of the first screen so that they participate in a first illumination function, and a support plate provided with at least one light source (SLi) delivering said photons, wherein said support plate comprises a front end oriented towards the outside of the optical block, ending at a chosen distance from said first screen characterized in that said front end delimits a passage allowing photons not participating in said first illumination function to reach a zone, behind said support plate, said zone being delimited by the support plate, the rear face of a second screen and a reflecting wall extending between the rear face of the second screen and the support plate so as to reflect the photons that have leaked through the passage, to backlight the rear face of the second screen in order to provide a second illumination function, and in that the second screen is made in a wall capable of allowing internal propagation of photons with a view to their participation in said second illumination function, and in that said wall comprises a portion defining said first screen, and a connecting portion connecting said first screen to said second screen.
Housing, in particular an electrical housing, motor housing, or gearbox housing, on which a pressure compensation element for equalizing a pressure between an interior space of the housing and an external side is provided, wherein the pressure compensation element is capable of being or is incorporated in the wall of the housing and comprises a pressure-equalizing membrane, wherein the pressure compensation element furthermore comprises a cylindrical structure having a ventilation duct extending therethrough, wherein the cylindrical structure extends in the direction towards the external side so as to form an elevation projecting from the wall of the housing, and said cylindrical structure is delimited by an annular end face to which the membrane is attached in a bulging, dome-shaped design, and wherein the pressure compensation element furthermore comprises a protective cover which, so as to be spaced apart from the membrane above the cylindrical structure, extends in the direction of the external side, and wherein the protective cover has a basic structure in the manner of a planar disk on which curved web-shaped mouldings are moulded to the planar side as turbine wheel blades, said mouldings having a curvature that is configured in the radial direction of the basic structure in the manner of a planar disk and being uniformly distributed on the basic structure in the circumferential direction of the latter such that a linear connection is prevented in the radial direction between the external side and the internal side of the protective cover.
A system for automated gear shifting of a manual transmission comprising an internal combustion engine, a primary flywheel mounted on a crankshaft, an elastic member which connects the primary flywheel to a drive shaft, a second flywheel, a clutch for connecting the secondary flywheel to the drive shaft, characterized in that a first electric motor / generator is connected to the primary flywheel and a second electric motor is connected to the secondary flywheel and said secondary flywheel is disengaged from said drive shaft when the speed exceeds 1.5-4 times the combustion engine idling speed.
A duplex firing initiator for an airbag inflator, the duplex firing initiator comprising: both a primary initiator and a secondary initiator for electrical connection to a Restraint Control Module; and wherein current is conducted in a forward polarity through the primary initiator to actuate the primary initiator and current is conducted in a reverse polarity through the secondary initiator to actuate at least the secondary initiator, characterized in that a diode and the secondary initiator are connected in a parallel connection; the primary initiator is connected in series with the parallel connection of the diode and the secondary initiator; and wherein current is conducted in a forward polarity through the diode and the primary initiator to actuate the primary initiator and current is conducted in a reverse polarity through the primary initiator and the secondary initiator to actuate at least the secondary initiator. both a primary initiator and a secondary initiator for electrical connection to a Restraint Control Module; and wherein current is conducted in a forward polarity through the primary initiator to actuate the primary initiator and current is conducted in a reverse polarity through the secondary initiator to actuate at least the secondary initiator, characterized in that a diode and the secondary initiator are connected in a parallel connection; the primary initiator is connected in series with the parallel connection of the diode and the secondary initiator; and wherein current is conducted in a forward polarity through the diode and the primary initiator to actuate the primary initiator and current is conducted in a reverse polarity through the primary initiator and the secondary initiator to actuate at least the secondary initiator.
A catalyst composition useful for catalyzing the telomerization of butadiene comprising a complex comprising palladium, a 1,3,5,7-tetramethyl-6-(2,4-dimethoxyphenyl)-2,4,8-trioxa-6-phosphaadamantane ligand, and a ligand selected from a methoxyoctadiene ligand, an octadienyl ligand, and a protonated octadienyl ligand.
A method for manufacturing an electrode, comprising: providing the electrode, wherein the electrode comprises a plurality of longitudinal bores, characterised by providing a positioning cartridge having a plurality of positioning inserts secured by a scaffold that holds each positioning insert in a defined orientation with respect to each other corresponding to the longitudinal bores of the electrode; deploying the positioning cartridge within the electrode so that each positioning insert is disposed within each longitudinal bore; and removing the scaffold while leaving each positioning insert is disposed within each longitudinal bore. providing the electrode, wherein the electrode comprises a plurality of longitudinal bores, characterised by providing a positioning cartridge having a plurality of positioning inserts secured by a scaffold that holds each positioning insert in a defined orientation with respect to each other corresponding to the longitudinal bores of the electrode; deploying the positioning cartridge within the electrode so that each positioning insert is disposed within each longitudinal bore; and removing the scaffold while leaving each positioning insert is disposed within each longitudinal bore.
A computer-implemented method, comprising: receiving an input mesh representation of a cardiac chamber, a set of measured locations on a wall tissue of the cardiac chamber, and a respective set of local activation times (LATs) measured at the locations; re-meshing the input mesh into a regular mesh comprising regularized polygons; data fitting the set of measured locations and respective LATs to the regularized polygons; iteratively calculating for the regularized polygons respective LAT values, so as to obtain a cyclic EP activation wave solution over the regular mesh that take account of reentry of an EP wave (80-90, 304), wherein iteratively calculating the LAT values comprises iteratively solving a set of complex valued equations that are configured to describe the reentry of an EP wave by including a reentry cycle length value; and presenting an electroanatomical map comprising the cyclic EP activation wave overlaid on the regular mesh. receiving an input mesh representation of a cardiac chamber, a set of measured locations on a wall tissue of the cardiac chamber, and a respective set of local activation times (LATs) measured at the locations; re-meshing the input mesh into a regular mesh comprising regularized polygons; data fitting the set of measured locations and respective LATs to the regularized polygons; iteratively calculating for the regularized polygons respective LAT values, so as to obtain a cyclic EP activation wave solution over the regular mesh that take account of reentry of an EP wave (80-90, 304), wherein iteratively calculating the LAT values comprises iteratively solving a set of complex valued equations that are configured to describe the reentry of an EP wave by including a reentry cycle length value; and presenting an electroanatomical map comprising the cyclic EP activation wave overlaid on the regular mesh.
A particulate material which is mainly composed of alumina, whose volume average particle diameter is from 70 to 200 μm, whose degree of sphericity is from 0.92 or more to less than 0.99, and whose degree of alfa-aluminization is from 50 to 85%, wherein: the particulate material produces a result of 0.017 g or less in an abrasion test for equipment, wherein the abrasion test for equipment is performed by the method as specified in the description.
A method for controlling the injection, by a reductant injector in an exhaust system for an internal combustion engine, of reductant for an exhaust aftertreatment unit of the exhaust system, for example a selective catalytic reduction unit, the method comprising - determining a reductant injection debt, and at least partly in dependence on the reductant injection debt, controlling the reductant injector so as to inject (S7, S701) a compensation flow, - characterised in the reductant injection debt being determined in dependence on a reductant flow according to at least a first request being higher than a threshold of the reductant flow, - and in that the method further comprises determining (S11, S1101) an age of the reductant injection debt, wherein the control so as to inject (S7, S701) the compensation flow is partly dependent on the determined debt age. - determining a reductant injection debt, and at least partly in dependence on the reductant injection debt, controlling the reductant injector so as to inject (S7, S701) a compensation flow, - characterised in the reductant injection debt being determined in dependence on a reductant flow according to at least a first request being higher than a threshold of the reductant flow, - and in that the method further comprises determining (S11, S1101) an age of the reductant injection debt, wherein the control so as to inject (S7, S701) the compensation flow is partly dependent on the determined debt age.