mhurhangee/patent-ind-claim-en huggingface dataset:
A method of decoding video data, the method comprising: initializing context information for a current slice of a current picture by inheriting context information of a previously-decoded block of a previously-decoded slice of a previously-decoded picture as initialized context information for the current slice of the current picture, wherein the previously-decoded block comprises a largest coding unit, LCU, that is at a center position within the previously-decoded picture; and decoding data of the current slice of the current picture using the initialized context information; wherein the current slice is included in a plurality of slices in the current picture for which context information is inherited from the previously-decoded slice, the method further comprising initializing respective context information for all of the plurality of slices by inheriting the context information after decoding the LCU. initializing context information for a current slice of a current picture by inheriting context information of a previously-decoded block of a previously-decoded slice of a previously-decoded picture as initialized context information for the current slice of the current picture, wherein the previously-decoded block comprises a largest coding unit, LCU, that is at a center position within the previously-decoded picture; and decoding data of the current slice of the current picture using the initialized context information; wherein the current slice is included in a plurality of slices in the current picture for which context information is inherited from the previously-decoded slice, the method further comprising initializing respective context information for all of the plurality of slices by inheriting the context information after decoding the LCU.
N-palmitoyl-D-glucosamine in a micronized form.
Supporting construction for a heating device or cooling device consisting of a profile , a pipe for a heating medium or cooling medium and a heat-radiating or cool-radiating cover plate or cover layer, wherein the profile is able to accommodate the pipe fixingly and can be fastened on a building construction such as e.g. on a present ceiling construction or wall construction of a structure, wherein the profile has at least one fastening means for fastening on the building construction , as well as at least one contact portion for the cover plate or cover layer, wherein the contact portion is provided as a support for the fastening and contacting of the radiating cover plate or cover layer and the profile has a holding portion , corresponding to the shape of the pipe , for the medium-guiding pipe , which holding portion has a receiving opening , pointing away from the building construction in the installed condition, for the pipe and the holding portion for the pipe is formed as a groove which is adapted to the diameter of the pipe , so that the pipe abuts in full contact in this groove, wherein fixing means or connecting means are disposed and formed in the groove such that they hold the pipe in installed condition on the base of the groove, characterised in that on or in holding portion is disposed at least the fastening means for the fastening of the profile to the building construction .
A process for exfoliating an untreated 3-dimensional layered material to produce a 2-dimensional material, said process comprising the steps of: mixing the untreated 3-dimensional layered material in a liquid to provide a mixture; applying shear force to said mixture such that a non-zero shear rate is generated in the liquid to exfoliate the 3-dimensional layered material and produce a dispersed and exfoliated 2-dimensional material in solution; stopping the shear force applied to said mixture, such that the dispersed exfoliated 2-dimensional material remains free and unaggregated in solution; wherein the untreated 3-dimensional layered material is selected from graphite or any transition metal dichalcogenide having the formula MXn, or any other layered material such as transition metal oxides, boron nitride, Bi2Te3, Sb2Te3, TiNCl, or any other inorganic layered compound; wherein the liquid is a solvent, a water-surfactant solution or a solution of a polymer in a solvent; wherein the mixture is unhindered by a gelling or thickening agent in the solution and so does not contain an intercalating agent; and wherein the shear force generates a shear rate greater than 3000 s -1 . mixing the untreated 3-dimensional layered material in a liquid to provide a mixture; applying shear force to said mixture such that a non-zero shear rate is generated in the liquid to exfoliate the 3-dimensional layered material and produce a dispersed and exfoliated 2-dimensional material in solution; stopping the shear force applied to said mixture, such that the dispersed exfoliated 2-dimensional material remains free and unaggregated in solution; wherein the untreated 3-dimensional layered material is selected from graphite or any transition metal dichalcogenide having the formula MXn, or any other layered material such as transition metal oxides, boron nitride, Bi2Te3, Sb2Te3, TiNCl, or any other inorganic layered compound; wherein the liquid is a solvent, a water-surfactant solution or a solution of a polymer in a solvent; wherein the mixture is unhindered by a gelling or thickening agent in the solution and so does not contain an intercalating agent; and wherein the shear force generates a shear rate greater than 3000 s -1 .
A first device comprising: an application processor configured to receive a control command from a second device , and transmit the control command to a secure processor being connected between the application processor and a control processor ; the secure processor configured to: authenticate the control command based on an authenticated key exchange with the second device, if the control command is successfully authenticated, authorize the control command based on a source of the control command and an authorization policy which is identified based on a role of the second device, a time period, and content within the control command, and after authorizing the control command, transmit to the second device , a response including a counter related to a number of messages exchanged between the first device and the second device ; and the control processor is configured to: receive, from the secure processor, the control command when the control command is authenticated and authorized by the secure processor, and execute the control command to activate at least one function of the first device. an application processor configured to receive a control command from a second device , and transmit the control command to a secure processor being connected between the application processor and a control processor ; the secure processor configured to: authenticate the control command based on an authenticated key exchange with the second device, if the control command is successfully authenticated, authorize the control command based on a source of the control command and an authorization policy which is identified based on a role of the second device, a time period, and content within the control command, and after authorizing the control command, transmit to the second device , a response including a counter related to a number of messages exchanged between the first device and the second device ; and authenticate the control command based on an authenticated key exchange with the second device, if the control command is successfully authenticated, authorize the control command based on a source of the control command and an authorization policy which is identified based on a role of the second device, a time period, and content within the control command, and after authorizing the control command, transmit to the second device , a response including a counter related to a number of messages exchanged between the first device and the second device ; and the control processor is configured to: receive, from the secure processor, the control command when the control command is authenticated and authorized by the secure processor, and execute the control command to activate at least one function of the first device. receive, from the secure processor, the control command when the control command is authenticated and authorized by the secure processor, and execute the control command to activate at least one function of the first device.
A method of offset load testing a tubular composite specimen having at least one wrinkle defect , the method comprising: providing a testing apparatus having a pair of arms including a fixed arm and a mobile arm , each of the fixed arm and the mobile arm including a fastener assembly ; characterized by providing the tubular composite specimen with a top portion with a first pair of aligned holes , a bottom portion with a second pair of aligned holes , and a center portion disposed between the top portion and the bottom portion , the top and bottom portions each include a plurality of reinforcement layers , the center portion including the at least one wrinkle defect ; securing the pair of arms using the respective fastener assembly in each of the first and second pair of aligned holes in the tubular composite specimen ; and moving the mobile arm to impart an offset load force to the center portion of the tubular composite specimen ; wherein the plurality of reinforcement layers prevent the tubular composite specimen from bending in the top and bottom portions during the moving step . providing a testing apparatus having a pair of arms including a fixed arm and a mobile arm , each of the fixed arm and the mobile arm including a fastener assembly ; characterized by providing the tubular composite specimen with a top portion with a first pair of aligned holes , a bottom portion with a second pair of aligned holes , and a center portion disposed between the top portion and the bottom portion , the top and bottom portions each include a plurality of reinforcement layers , the center portion including the at least one wrinkle defect ; securing the pair of arms using the respective fastener assembly in each of the first and second pair of aligned holes in the tubular composite specimen ; and moving the mobile arm to impart an offset load force to the center portion of the tubular composite specimen ; wherein the plurality of reinforcement layers prevent the tubular composite specimen from bending in the top and bottom portions during the moving step .
Structure of a motor vehicle, comprising two roof roof arches arranged respectively on each side flank of said roof, and each forming a beam of hollow and closed section ; characterized in that the hollow and closed section of each of the two roof roof arches has a size that gradually increases over a portion of said arch from a first connection zone with a middle foot to a second connection zone to a roof roof rear cross-member .
A virtual reality attraction system comprising: virtual reality (VR) and/or augmented reality (AR) headgear configured to display AR images and/or VR images to a user; and at least one user-assisted vehicle configured to accommodate the user, the at least one user-assisted vehicle comprising: a frame , wherein the frame is configured to permit the user to at least partially provide motor power to move the at least one user-assisted vehicle within the attraction and wherein the frame defines a boundary about the user; a harness coupled to the frame and configured to provide support to the user when the user is in the at least one user-assisted vehicle ; and a controller configured to communicate the AR and/or VR images to the virtual reality (VR) and/or augmented reality (AR) headgear . virtual reality (VR) and/or augmented reality (AR) headgear configured to display AR images and/or VR images to a user; and at least one user-assisted vehicle configured to accommodate the user, the at least one user-assisted vehicle comprising: a frame , wherein the frame is configured to permit the user to at least partially provide motor power to move the at least one user-assisted vehicle within the attraction and wherein the frame defines a boundary about the user; a harness coupled to the frame and configured to provide support to the user when the user is in the at least one user-assisted vehicle ; and a controller configured to communicate the AR and/or VR images to the virtual reality (VR) and/or augmented reality (AR) headgear . a frame , wherein the frame is configured to permit the user to at least partially provide motor power to move the at least one user-assisted vehicle within the attraction and wherein the frame defines a boundary about the user; a harness coupled to the frame and configured to provide support to the user when the user is in the at least one user-assisted vehicle ; and a controller configured to communicate the AR and/or VR images to the virtual reality (VR) and/or augmented reality (AR) headgear .
A pharmaceutical composition for use in the treatment of cancer, said composition comprising one or more compounds having a structure represented by a following formula (I) or a pharmaceutically acceptable salt thereof, wherein: L represents a direct bond or an optionally substituted C 1 -C 5 alkylene group; M represents a hydrogen atom or a halogen atom; R 1 represents an optionally substituted, straight chain or branched chain C 1 -C 5 alkyl group; R 2 represents a hydrogen atom, a straight chain or branched chain C 1 -C 5 alkyl group, a C 6 -C 14 aryl group, or a C 7 -C 16 arylalkyl group; and R 3 represents a hydrogen atom or a straight chain or branched chain C 1 -C 3 alkyl group, wherein the cancer is associated with expression of LAT1, and is selected from a group consisting of pancreatic cancer, leukemia, colorectal cancer, lung cancer, prostate cancer, stomach cancer, breast cancer, kidney cancer, laryngeal cancer, esophageal cancer, liver cancer, lymphoma, myeloma, head and neck cancer, ovarian cancer, bladder cancer, childhood cancer, childhood leukemia, and a brain tumor. wherein: L represents a direct bond or an optionally substituted C 1 -C 5 alkylene group; M represents a hydrogen atom or a halogen atom; R 1 represents an optionally substituted, straight chain or branched chain C 1 -C 5 alkyl group; R 2 represents a hydrogen atom, a straight chain or branched chain C 1 -C 5 alkyl group, a C 6 -C 14 aryl group, or a C 7 -C 16 arylalkyl group; and R 3 represents a hydrogen atom or a straight chain or branched chain C 1 -C 3 alkyl group, wherein the cancer is associated with expression of LAT1, and is selected from a group consisting of pancreatic cancer, leukemia, colorectal cancer, lung cancer, prostate cancer, stomach cancer, breast cancer, kidney cancer, laryngeal cancer, esophageal cancer, liver cancer, lymphoma, myeloma, head and neck cancer, ovarian cancer, bladder cancer, childhood cancer, childhood leukemia, and a brain tumor.
A hardware-based processing node of a memory fabric , the hardware-based processing node comprising: at least one memory module comprising a hardware component installed in the hardware-based processing node, the memory module storing and managing one or more memory objects, wherein: each memory object is created natively within the memory module each memory object is accessed using a single memory reference instruction and without explicit Input/Output (I/O) instructions, and each memory object is managed by the memory module at a single memory layer without distinction between persistent storage and temporary memory and without distinction between local and remote location of memory objects on the memory fabric and using the metadata defined for each memory object characterized in that each memory object is managed based on one ore more triggers for each memory object defined in the metadata, wherein the triggers correspond to executable instructions of an object memory fabric instruction set and define one or more pre-defined hardware and/or software actions to be performed on a per-block basis with respect to one or more data blocks within the memory object for which the executable instructions are defined. at least one memory module each memory object is created natively within the memory module each memory object is accessed using a single memory reference instruction and without explicit Input/Output (I/O) instructions, and each memory object is managed by the memory module at a single memory layer without distinction between persistent storage and temporary memory and without distinction between local and remote location of memory objects on the memory fabric and using the metadata defined for each memory object characterized in that each memory object is managed based on one ore more triggers for each memory object defined in the metadata, wherein the triggers correspond to executable instructions of an object memory fabric instruction set and define one or more pre-defined hardware and/or software actions to be performed on a per-block basis with respect to one or more data blocks within the memory object for which the executable instructions are defined.
A device for separating liquid from a gas stream within a liquid injected compressor or liquid injected vacuum pump , said device (1; 101) comprising a first vessel comprising a first bottom plate , a first lateral wall comprising an inlet (2; 102) fluidly connected with a compressed gas outlet , or with an outlet of the vacuum pump , and a lid comprising an outlet (5; 105), the device further comprising: - a first separation means comprising a first and a second liquid separation area (12a and 12b), said first and second liquid separation area being in fluid communication with the inlet ; whereby each of the first and second liquid separation area comprises a first plate onto which a circular wall is mounted, whereby a first and a second fluid channel is created between each of said circular wall and the first lateral wall ; - a second separation means provided in each of the first and second liquid separation area , said second separation means comprising at least a cyclone mounted therein; - a third separation means comprising at least a filter mounted therein, whereby said filter is fluidly connected to one of said cyclones and whereby the third separation means is in fluid communication with the outlet (5; 105); - an inlet channel being in fluid communication with said inlet , the inlet channel comprising a fin type of structure for dividing the gas flowing through the inlet into two flows characterized in that - said inlet channel comprises a top panel and a bottom panel having one end adapted to be mounted onto the first lateral wall , whereby at least said top panel is creating a slope, having the highest point onto the first lateral wall and the lowest point at the opposite end. - a first separation means comprising a first and a second liquid separation area (12a and 12b), said first and second liquid separation area being in fluid communication with the inlet ; whereby each of the first and second liquid separation area comprises a first plate onto which a circular wall is mounted, whereby a first and a second fluid channel is created between each of said circular wall and the first lateral wall ; - a second separation means provided in each of the first and second liquid separation area , said second separation means comprising at least a cyclone mounted therein; - a third separation means comprising at least a filter mounted therein, whereby said filter is fluidly connected to one of said cyclones and whereby the third separation means is in fluid communication with the outlet (5; 105); - an inlet channel being in fluid communication with said inlet , the inlet channel comprising a fin type of structure for dividing the gas flowing through the inlet into two flows - said inlet channel comprises a top panel and a bottom panel having one end adapted to be mounted onto the first lateral wall , whereby at least said top panel is creating a slope, having the highest point onto the first lateral wall and the lowest point at the opposite end.
A method for separating a target component in a solution, comprising the steps of: providing a solution comprising a target component, and a reaction reagent capable of gasifying the target component; while continuously feeding the solution and the reaction reagent to a flow path , intermittently injecting bubbles (G) into the flow path to produce a gas-liquid slug flow in which a mixed liquid (AB) comprising the solution and the reaction reagent is segmented into a plurality of droplets (L) by the bubbles (G); continuing the feed of the gas-liquid slug flow in the flow path , thereby facilitating the mixing of the solution and the reaction reagent, and the gasification of the target component by the mixing, in each droplet (L), and the movement of a target component-derived gas (AB') produced by the gasification to the bubbles (G); and recovering the target component-derived gas (AB') that has moved to the bubbles (G) with an absorbing liquid, wherein the gasification of the target component is performed at a temperature less than a boiling point of the solution, wherein the step of recovering the target component-derived gas (AB') with an absorbing liquid is performed by performing gas-liquid separation while pushing the gas-liquid slug flow by a gas, and bringing a gas separated from the gas-liquid slug flow into contact with the absorbing liquid. providing a solution comprising a target component, and a reaction reagent capable of gasifying the target component; while continuously feeding the solution and the reaction reagent to a flow path , intermittently injecting bubbles (G) into the flow path to produce a gas-liquid slug flow in which a mixed liquid (AB) comprising the solution and the reaction reagent is segmented into a plurality of droplets (L) by the bubbles (G); continuing the feed of the gas-liquid slug flow in the flow path , thereby facilitating the mixing of the solution and the reaction reagent, and the gasification of the target component by the mixing, in each droplet (L), and the movement of a target component-derived gas (AB') produced by the gasification to the bubbles (G); and recovering the target component-derived gas (AB') that has moved to the bubbles (G) with an absorbing liquid, wherein the gasification of the target component is performed at a temperature less than a boiling point of the solution, wherein the step of recovering the target component-derived gas (AB') with an absorbing liquid is performed by performing gas-liquid separation while pushing the gas-liquid slug flow by a gas, and bringing a gas separated from the gas-liquid slug flow into contact with the absorbing liquid.
A chimeric molecule comprising a supercharged protein or peptide, an antimicrobial peptide, selected from the group consisting of aurein 1.2 and citropin 1.3, which selectively disrupts the endosomal membrane without disrupting the mammalian cell membrane, and one or more gene editing agents comprising transcriptional activators, transcriptional repressors, recombinases, nucleases, DNA-binding proteins or nucleic acids which are conjugated to each other, fused, linked, translated, or attached via a linker.
A method for producing 2-isopropenyl-5-methyl-4-hexen-1-yl 3-methyl-2-butenoate, comprising a step of transesterifying 2-isopropenyl-5-methyl-4-hexen-1-ol represented by Formula : with alkyl senecioate represented by General Formula : wherein R is a saturated or unsaturated linear alkyl group having 1 to 6 carbon atoms, in the presence of a catalyst, while distilling off an alcohol represented by General Formula : ROH formed as a by-product, to obtain the 2-isopropenyl-5-methyl-4-hexen-1-yl 3-methyl-2-butenoate represented by Formula :