mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing video data, the method comprising: for a first group of one or more blocks of the video data, updating one or more context statuses for a binary arithmetic coder, wherein each context status of the one or more context statuses comprises values for context variables and wherein updating the one or more context statuses for the binary arithmetic coder comprises updating the values for the context variables; storing the updated one or more context statuses for the binary arithmetic coder at a bit depth of K; for a second group of one or more blocks of the video data, initializing the binary arithmetic coder with values for context variables for one of the one or more stored context statuses, wherein the first group of one or more blocks of the video data comprise one or more previously coded blocks relative to the second group of one or more blocks of the video data; wherein initializing the binary arithmetic coder comprises: i) setting an initialized status value for an i-th context model for the second group of one or more blocks of the video data to a stored value << (N - K)), wherein << denotes a left-shift operation, and ii) initializing the i-th context; coding the second group of one or more blocks of the video data with the initialized binary arithmetic coder using a context status at a bit depth of N, wherein N and K are both positive integer values, and wherein K is smaller than N; and outputting the second group of one or more coded blocks. for a first group of one or more blocks of the video data, updating one or more context statuses for a binary arithmetic coder, wherein each context status of the one or more context statuses comprises values for context variables and wherein updating the one or more context statuses for the binary arithmetic coder comprises updating the values for the context variables; storing the updated one or more context statuses for the binary arithmetic coder at a bit depth of K; for a second group of one or more blocks of the video data, initializing the binary arithmetic coder with values for context variables for one of the one or more stored context statuses, wherein the first group of one or more blocks of the video data comprise one or more previously coded blocks relative to the second group of one or more blocks of the video data; wherein initializing the binary arithmetic coder comprises: i) setting an initialized status value for an i-th context model for the second group of one or more blocks of the video data to a stored value << (N - K)), wherein << denotes a left-shift operation, and ii) initializing the i-th context; i) setting an initialized status value for an i-th context model for the second group of one or more blocks of the video data to a stored value << (N - K)), wherein << denotes a left-shift operation, and ii) initializing the i-th context; coding the second group of one or more blocks of the video data with the initialized binary arithmetic coder using a context status at a bit depth of N, wherein N and K are both positive integer values, and wherein K is smaller than N; and outputting the second group of one or more coded blocks.
A core shell composite adsorbent for use in separating bulk gases in a cyclic adsorbent process comprising: from about 65-95 vol% of an adsorbent shell, and an inert core having a porosity 0% to less than or equal to 10% wherein the mean core volume ratio of the adsorbent ranges from about 5 to about 35%, said inert core having a volumetric thermal capacity higher than 1 J/cc-K, and wherein said adsorbent shell comprises one or more zeolites selected from LSX, Y, A, L, ZSM-5, Mordenite, Clinoptilolite, Chabazite and mixtures thereof, where the core volume ratio is measured by dividing the volume of the core by the volume of the core shell agglomerate, using for both the volume of the core and the core shell agglomerate the volume of sphere formula 4/3 x π x r 3 , where the radius is determined by average particle size as determined by sieve screens. from about 65-95 vol% of an adsorbent shell, and an inert core having a porosity 0% to less than or equal to 10%
An encoder apparatus (EC), comprising: a position detection system including a detector that is configured to detect position information on a mover (SF); an electric signal generator that is configured to generate an electric signal in response to movement of the mover (SF); and a battery that is configured to supply at least a part of power consumed by the position detection system in accordance with the electric signal generated by the electric signal generator , characterized in that the battery includes a primary cell and a secondary cell , the secondary cell is configured to be charged by being supplied with power from a main power supply (MC2) when the main power supply (MC2) is turned on, the secondary cell is configured to be charged, at least in part, by power from the electric signal generated by the electric signal generator when the main power supply (MC2) is turned off, and the encoder apparatus (EC) includes a selector that is configured to select which of the primary cell and the secondary cell is used to supply power to the position detection system based on a remaining power amount of the secondary cell . a position detection system including a detector that is configured to detect position information on a mover (SF); an electric signal generator that is configured to generate an electric signal in response to movement of the mover (SF); and a battery that is configured to supply at least a part of power consumed by the position detection system in accordance with the electric signal generated by the electric signal generator , characterized in that the battery includes a primary cell and a secondary cell , the secondary cell is configured to be charged by being supplied with power from a main power supply (MC2) when the main power supply (MC2) is turned on, the secondary cell is configured to be charged, at least in part, by power from the electric signal generated by the electric signal generator when the main power supply (MC2) is turned off, and the encoder apparatus (EC) includes a selector that is configured to select which of the primary cell and the secondary cell is used to supply power to the position detection system based on a remaining power amount of the secondary cell .
A touch sensor assembly comprising: a touch substrate configured to be attached to a panel having a touch point ; and a piezo disk fixed to the touch substrate and having a first and a second pole , the first pole being disposed on a surface of the second pole facing the touch substrate ; wherein the touch substrate includes: - a pressing part , which is flexibly provided on the touch substrate, which is in contact with the first pole and electrically connected thereto, and which is electrically connected to a first wiring provided on the touch substrate , and - a fixing surface electrically connected to the second pole and electrically connected to second wirings provided on the touch substrate ; and wherein an oxidation prevention film including a conductive material is formed in electrical connection regions of the piezo disk and the touch substrate and is disposed on at least one of the first pole , the second pole , the pressing part and the fixing surface . a touch substrate configured to be attached to a panel having a touch point ; and a piezo disk fixed to the touch substrate and having a first and a second pole , the first pole being disposed on a surface of the second pole facing the touch substrate ; wherein the touch substrate includes: - a pressing part , which is flexibly provided on the touch substrate, which is in contact with the first pole and electrically connected thereto, and which is electrically connected to a first wiring provided on the touch substrate , and - a fixing surface electrically connected to the second pole and electrically connected to second wirings provided on the touch substrate ; and - a pressing part , which is flexibly provided on the touch substrate, which is in contact with the first pole and electrically connected thereto, and which is electrically connected to a first wiring provided on the touch substrate , and - a fixing surface electrically connected to the second pole and electrically connected to second wirings provided on the touch substrate ; and wherein an oxidation prevention film including a conductive material is formed in electrical connection regions of the piezo disk and the touch substrate and is disposed on at least one of the first pole , the second pole , the pressing part and the fixing surface .
A white copper-clad laminate, characterized in that the white copper-clad laminate comprises at least one laminated white prepreg and a copper foil pressed on one side or both sides of the laminated white prepreg; wherein the white prepreg comprises a reinforcing material and an organosilicone resin composition attached to the reinforcing material after impregnation and drying; wherein the organosilicone resin composition comprises: 100 parts by weight of a condensation type silicone resin; 5-60 parts by weight of a white filler; 0.0001-2 parts by weight of a catalyst; and 0.1-10 parts by weight of an adjuvant; wherein the condensation type silicone resin is a methylphenyl silicone resin with R/Si = 1.2-1.7 (molar ratio) and Ph/(Me+Ph) = 0.2-0.6 (molar ratio); wherein Ph represents a phenyl group, Me represents a methyl group, and R represents an organic functional group selected from -CH 3 , -Ph, -OCH 3 , -OCH 2 CH 3 , -H or -OH; wherein the adjuvant is a coupling agent and/or a dispersant, and the coupling agent is a silane coupling agent and/or a titanate coupling agent. 100 parts by weight of a condensation type silicone resin; 5-60 parts by weight of a white filler; 0.0001-2 parts by weight of a catalyst; and 0.1-10 parts by weight of an adjuvant; wherein the condensation type silicone resin is a methylphenyl silicone resin with R/Si = 1.2-1.7 (molar ratio) and Ph/(Me+Ph) = 0.2-0.6 (molar ratio); wherein Ph represents a phenyl group, Me represents a methyl group, and R represents an organic functional group selected from -CH 3 , -Ph, -OCH 3 , -OCH 2 CH 3 , -H or -OH; wherein the adjuvant is a coupling agent and/or a dispersant, and the coupling agent is a silane coupling agent and/or a titanate coupling agent.
Multi-cell plate for automated incubation, processing harvesting and analysis of samples of biological material, the multi-cell plate comprising a body with a plurality of cells ; a sealing film for sealing the cells on a first side of the body ; a sample film for sealing the cells on a second side of the body ; wherein the sample film is adapted for accommodating a biological material for crystallization; wherein the sample film comprises a thickness between 1 μm and 50 μm; the multi-cell plate being characterised in that the sample film comprises a cyclic olefin copolymer material as a material compatible with laser-induced photo ablation and/or compatible with X-ray data collection.
Method for authenticating a document (D), the document (D) being provided with a window that is at least partially closed off by a transparent film (F) bearing a mark (M), the method being implemented by way of an image sensor connected to an image-processing computing unit , and comprising the following steps: - driving the image sensor so as to successively capture a first image of the document (D) and a second image of the document (D) while presenting a random dynamic background behind the window (O), the background presented behind the window (O) during the capture of the second image being different from the background presented behind the window (O) during the capture of the first image; and - driving the processing unit so as to verify that the background visible within the window (O) in the second image corresponds to an expected background different from the background visible in the first image and verify that the mark (M) is visible within the window (O). - driving the image sensor so as to successively capture a first image of the document (D) and a second image of the document (D) while presenting a random dynamic background behind the window (O), the background presented behind the window (O) during the capture of the second image being different from the background presented behind the window (O) during the capture of the first image; and - driving the processing unit so as to verify that the background visible within the window (O) in the second image corresponds to an expected background different from the background visible in the first image and verify that the mark (M) is visible within the window (O).
A computer implemented method of determining coherency between composite synthetic aperture radar images having phase and amplitude components, the method comprising: providing first and second amplitude images indicative of amplitude values of pixels of respective first and second composite images; generating, for said first and second amplitude image, respective first and second restored images indicative of a pseudo phase images thereof, said generating comprises applying to each of said first and second amplitude images a first directional derivative operator and a second directional derivative operator thereby generating for each of said amplitude images respective first directional derivative image and second directional derivative image thereof, and estimating said first and second pseudo phase images of the first and second restored images by computing an angle between the respective first and second directional derivatives components at each pixel of said first and second amplitude images; and generating a coherency map based at least on the first and second restored images associated with said first and second amplitude images by determining a cross-correlation between said first and second restored images, said first coherency map being indicative of decorrelation between said first and second composite images. generating, for said first and second amplitude image, respective first and second restored images indicative of a pseudo phase images thereof, said generating comprises applying to each of said first and second amplitude images a first directional derivative operator and a second directional derivative operator thereby generating for each of said amplitude images respective first directional derivative image and second directional derivative image thereof, and estimating said first and second pseudo phase images of the first and second restored images by computing an angle between the respective first and second directional derivatives components at each pixel of said first and second amplitude images; and generating a coherency map based at least on the first and second restored images associated with said first and second amplitude images by determining a cross-correlation between said first and second restored images, said first coherency map being indicative of decorrelation between said first and second composite images.
Combination of a chain and a multiple sprocket wheel having different-size sprockets for receiving a chain formed with rollers , outer plates and inner plates , and for transmitting a circumferential force introduced by the chain to a hub of a bicycle's rear wheel, providing the option to shift the chain from one sprocket to another by means of a shifting device, the sprocket and its teeth having shifting aids which both facilitate the gear change and make a more substantial contribution to keeping the chain engaged with the teeth of the sprocket, wherein the sprocket for guiding the chain in the region of its root circle has a sprocket width that is smaller than the distance between the inner plates determined by a roller of the chain , wherein the resulting little play of the chain on the tooth relates to a guide portion of a tooth gap bottom , characterized in that the teeth arranged on the side facing the larger sprocket have a flat guide inclination that extends from the tooth tip to the root circle where the sprocket reaches its maximum sprocket width , wherein the chain forms a guide portion at the root circle through a projection of the inner plates relative to the roller , and in that axial guidance of the chain on the sprocket is produced by the projection of the inner plates relative to the roller in the guide portion at the root circle of the sprocket , wherein in an engagement state between the chain and the sprocket , in which two rollers connected to one another via an inner plate fit into a tooth gap bottom , the guide portion of the inner plate is provided at the tooth gap bottom that is formed in the region of the root circle with a width around the tooth gap bottom that corresponds to the projection .
Use of a compound represented by Formula 1 as an additive of a non-aqueous electrolyte solution: wherein, in Formula 1, R 1 to R 4 are each independently hydrogen or an unsubstituted alkyl group having 1 to 5 carbon atoms. wherein, in Formula 1, R 1 to R 4 are each independently hydrogen or an unsubstituted alkyl group having 1 to 5 carbon atoms.
A sanding pad for a sanding machine , comprising a drive holder , situated on the machine side of the sanding pad, to be fastened in a non-rotatable manner to a drive of the sanding machine , such that the sanding pad can be driven by the sanding machine in an in particular rotational and/or eccentric sanding motion that is suitable for sanding a workpiece (W); wherein the sanding pad comprises a machining side , which is opposite the machine side and has a machining face on which a sanding means for abrasive machining of a workpiece (W) can be arranged so as to be fixed or removable using an adhesive layer , wherein inflow openings for dust-laden dirty air (S) to flow in are situated in the machining face , and outflow openings fluidically connected to the inflow openings via through-channels are situated on the machine side ; wherein the outflow openings are situated in a suction zone within an annular sealing element that is situated on the machine side for sealingly contacting a counter-sealing element of the sanding machine , wherein the sanding pad comprises a planar body which has a supporting wall provided for supporting the sanding means , which supporting wall is reinforced by a rib structure , the ribs of which project beyond the supporting wall towards the machine side , wherein the ribs delimit cavities which are closed by the supporting wall with respect to the machining side and are open with respect to the machine side , and wherein the sealing element covers at least some of the cavities towards the machine side , characterized in that it has a cover element which covers at least part of the cavities on the machine side , wherein both the sealing element and the cover element each covering cavities on the machine side .
An additive manufacturing system , comprising: a transport device comprising a build platform , side walls and a bottom wall , wherein the side walls and the bottom wall define a common compartment , whose volume is divided by the build platform into a build material volume below the build platform and a build volume above the build platform up to the level of the side walls; a 3D printer to receive the transport device and to build an object in the build volume of the transport device from a build material in the build material volume of the transport device ; characterized in that it further comprises an extracting and supply device to receive the transport device , to extract the object from the build volume of the transport device , and to supply the build material to the build material volume of the transport device . a 3D printer to receive the transport device and to build an object in the build volume of the transport device from a build material in the build material volume of the transport device ; characterized in that it further comprises an extracting and supply device to receive the transport device , to extract the object from the build volume of the transport device , and to supply the build material to the build material volume of the transport device .
A surgical evacuation system , comprising: a pump ; a motor operably coupled to the pump; and a flow path fluidically coupled to the pump, wherein the flow path comprises: a first fluid filter configured to extract a large droplet in a fluid moving through the flow path; and a second fluid filter configured to extract a small droplet in the fluid moving through the flow path, wherein the first fluid filter is coupled in series with the second fluid filter, wherein the first fluid filter is positioned upstream of the second fluid filter, wherein an outlet port of the second fluid filter is coupled to an inlet port of a non-fluid filter ; and characterised in that the surgical evacuation system further comprises a first recirculation channel , wherein an inlet port of the first recirculation channel is positioned between the first fluid filter and the second fluid filter, wherein the first recirculation channel is configured to recirculate the fluid output from the first fluid filter. a pump ; a motor operably coupled to the pump; and a flow path fluidically coupled to the pump, wherein the flow path comprises: a first fluid filter configured to extract a large droplet in a fluid moving through the flow path; and a second fluid filter configured to extract a small droplet in the fluid moving through the flow path, wherein the first fluid filter is coupled in series with the second fluid filter, wherein the first fluid filter is positioned upstream of the second fluid filter, wherein an outlet port of the second fluid filter is coupled to an inlet port of a non-fluid filter ; and a first fluid filter configured to extract a large droplet in a fluid moving through the flow path; and a second fluid filter configured to extract a small droplet in the fluid moving through the flow path, wherein the first fluid filter is coupled in series with the second fluid filter, wherein the first fluid filter is positioned upstream of the second fluid filter, wherein an outlet port of the second fluid filter is coupled to an inlet port of a non-fluid filter ; and characterised in that the surgical evacuation system further comprises a first recirculation channel , wherein an inlet port of the first recirculation channel is positioned between the first fluid filter and the second fluid filter, wherein the first recirculation channel is configured to recirculate the fluid output from the first fluid filter.
A film for plastic restoration , being characterized by comprising: a base material film formed of thermoplastic polyurethane; and an adhesive layer formed on a first surface side of the base material film and containing a bluish dye, wherein the adhesive layer is composed of at least one resin selected from an acrylic resin, a urethane-based resin, a rubber-based resin and a silicone-based resin, and a refractive index of the adhesive layer is 1.40 to 1.70, and surface roughness of the adhesive layer is 350 to 750 nanometers. a base material film formed of thermoplastic polyurethane; and an adhesive layer formed on a first surface side of the base material film and containing a bluish dye, wherein the adhesive layer is composed of at least one resin selected from an acrylic resin, a urethane-based resin, a rubber-based resin and a silicone-based resin, and a refractive index of the adhesive layer is 1.40 to 1.70, and surface roughness of the adhesive layer is 350 to 750 nanometers.