mhurhangee/ep-ind-claims huggingface dataset:
Channel baling press, which is suitable for cross-binding, having - a first, permanently active strapping device and having - a second, temporarily activatable horizontal strapping device for producing bales by strapping the compressed material with a strapping material in a plurality of tracks, - the strapping devices having guide means for guiding the strapping material, characterized in that the second horizontal strapping device has automatic holding means and separating means, which operate as a function of a controller, for holding and separating the strapping material. - a first, permanently active strapping device and having - a second, temporarily activatable horizontal strapping device for producing bales by strapping the compressed material with a strapping material in a plurality of tracks, - the strapping devices having guide means for guiding the strapping material, characterized in that the second horizontal strapping device has automatic holding means and separating means, which operate as a function of a controller, for holding and separating the strapping material.
A method for preparing inositol, comprising: using starch or starch derivative as substrate, adding α-glucan phosphorylase, phosphoglucomutase, inositol-3-phophate synthase and inositol monophosphatase to establish a multi-enzyme reaction system and perform an enzyme-catalyzed reaction; and separating and purifying reaction product to obtain inositol, wherein the enzyme-catalyzed reaction is performed at 40-100°C for 10 to 100 hours. using starch or starch derivative as substrate, adding α-glucan phosphorylase, phosphoglucomutase, inositol-3-phophate synthase and inositol monophosphatase to establish a multi-enzyme reaction system and perform an enzyme-catalyzed reaction; and separating and purifying reaction product to obtain inositol,
Method for encoding successive frames of a higher-order Ambisonics representation of a 2- or 3-dimensional sound field, denoted HOA coefficients, said method including the steps: - transforming O input HOA coefficients (IHOA) of a frame into O spatial domain signals, wherein O = (N+1) 2 for 3-dimensional sound fields and O = 2N+1 for 2-dimensional sound fields, the spatial domain signals representing a regular distribution of reference points on a sphere or a circle, respectively, wherein N > 1 is the order of said HOA coefficients and each one of said spatial domain signals represents a set of plane waves which come from associated directions in space; - encoding each one of said spatial domain signals using perceptual encoding steps or stages (821,822,...,820), thereby using encoding parameters selected such that the coding error is inaudible; - multiplexing the resulting bit streams of a frame into a joint bit stream. - transforming O input HOA coefficients (IHOA) of a frame into O spatial domain signals, wherein O = (N+1) 2 for 3-dimensional sound fields and O = 2N+1 for 2-dimensional sound fields, the spatial domain signals representing a regular distribution of reference points on a sphere or a circle, respectively, wherein N > 1 is the order of said HOA coefficients and each one of said spatial domain signals represents a set of plane waves which come from associated directions in space; - encoding each one of said spatial domain signals using perceptual encoding steps or stages (821,822,...,820), thereby using encoding parameters selected such that the coding error is inaudible; - multiplexing the resulting bit streams of a frame into a joint bit stream.
A compound of the formula: wherein n is 0-3; R 1 is -H, -F, -gem-difluoro, -gem-dimethyl, -C 1-4 alkyl, -CHF 2, -CF 2 CH 3 or -CH 2 CH 2 F; and R 2 is selected from -H, -CH 3, -F, -Cl, -CN, or -OCH 3; or a pharmaceutically acceptable salt thereof. R 1 is -H, -F, -gem-difluoro, -gem-dimethyl, -C 1-4 alkyl, -CHF 2, -CF 2 CH 3 or -CH 2 CH 2 F; and R 2 is selected from -H, -CH 3, -F, -Cl, -CN, or -OCH 3; or a pharmaceutically acceptable salt thereof.
An apparatus comprising: input circuitry configured to acquire imaging data corresponding to a branched organic structure; and image processing circuitry configured to: determine, from the imaging data, a parametric configuration of the branched organic structure comprising solid and volumetric scaffolding data indicative of the branched organic structure, wherein: the solid and volumetric scaffolding data comprises a layout of a pre-determined plurality of free-form conforming vectorial elements associated with branches, and connections between said branches, of the branched organic structure; and said free-form vectorial elements of the solid and volumetric scaffolding: have a layout of said free-form vectorial elements in the form of a lattice defined by a parametric three-dimensional tensor product along each physical dimension of said free-form vectorial element; and are associated with corresponding solid and volumetric regions of the branched organic structure, and determine, based on the scaffolding data, a multi-dimensional parametric representation of the branched organic structure. determine, from the imaging data, a parametric configuration of the branched organic structure comprising solid and volumetric scaffolding data indicative of the branched organic structure, wherein: the solid and volumetric scaffolding data comprises a layout of a pre-determined plurality of free-form conforming vectorial elements associated with branches, and connections between said branches, of the branched organic structure; and said free-form vectorial elements of the solid and volumetric scaffolding: have a layout of said free-form vectorial elements in the form of a lattice defined by a parametric three-dimensional tensor product along each physical dimension of said free-form vectorial element; and are associated with corresponding solid and volumetric regions of the branched organic structure, and the solid and volumetric scaffolding data comprises a layout of a pre-determined plurality of free-form conforming vectorial elements associated with branches, and connections between said branches, of the branched organic structure; and said free-form vectorial elements of the solid and volumetric scaffolding: have a layout of said free-form vectorial elements in the form of a lattice defined by a parametric three-dimensional tensor product along each physical dimension of said free-form vectorial element; and are associated with corresponding solid and volumetric regions of the branched organic structure, and have a layout of said free-form vectorial elements in the form of a lattice defined by a parametric three-dimensional tensor product along each physical dimension of said free-form vectorial element; and are associated with corresponding solid and volumetric regions of the branched organic structure, and determine, based on the scaffolding data, a multi-dimensional parametric representation of the branched organic structure.
Sulfur-crosslinkable rubberizing mixture for reinforcement in pneumatic tires, comprising - from 70 to 100 phr (parts by weight, based on 100 parts by weight of all of the rubbers in the mixture) of natural rubber, - up to 30 phr of at least one polybutadiene, - from 40 to 70 phr of at least one carbon black, and - an adhesive system, characterized in that the carbon black is a nanostructured carbon black with rough surface and an oil absorption number OAN in accordance with ASTM D2414 of ≥ 135 mL/100 g, a specific surface area STSA accessible for rubber in accordance with ASTM D6556 of ≥ 80 m 2 /g, and an iodine adsorption number in accordance with ASTM D1510 of ≥ 90 mg/g, where the ratio of OAN to STSA is > 1.1, preferably > 1.3. - from 70 to 100 phr (parts by weight, based on 100 parts by weight of all of the rubbers in the mixture) of natural rubber, - up to 30 phr of at least one polybutadiene, - from 40 to 70 phr of at least one carbon black, and - an adhesive system,
Appliance for dispensing strips of pre-cut material rolled into a spool, incorporating a case to receive the spool, with a bottom face, a horizontal lower part and lateral faces, and a hinged closing cover, with said case and said cover being provided at their lower part with a central opening allowing the passage and dispensing of the strip of material, the case having a horizontal lower part with, in its thickness, a central opening, characterized in that the case has, on its lower face (1b1), a profiled ring positioned in a plane that is eccentric in relation to the said central opening, providing between them a passageway for the pulled strip of material, and in that the case has, under said lower face, a hinged flap arranged to accommodate a circular profiled dome form that integrates opposite the interior opening formed by said ring, while allowing continuity of passage for the pulled strip of material and its exit from the appliance, and in that said flap has a profiled design (4.2 and 4.4) that is positioned facing the cover so as to be solicited by the cover when it is raised in view of its closure, so as to ensure the positioning of said dome form around the opening in the ring, depending on the characteristics of the pulled strip of material, said strip of material reeled into a spool passing through the opening formed in the case and passing into the space formed between said ring and said dome form positioned facing each other.
A solar panel unit comprising: a body having an upper wall and a lower wall, and an internal volume located between the upper and lower walls such that the body is able to float on water when placed thereon, and one or more photovoltaic modules mounted on an upper surface of the upper wall of the body, wherein at least one of, or optionally both of, the upper and lower walls of the body is formed from a drawn or deep-drawn sheet material, and wherein the internal volume within the body is provided with a series or array of internal partitions, baffles, or other internal space-dividing or internal space-reducing elements, and one or both of the upper and/or lower walls of the body comprise(s) an array or series of dimples, depressions, indentations, recesses or other surface deformations which extend or protrude into the internal volume or space within the body to create said internal partitions, baffles, or other internal space-dividing or internal space-reducing elements. a body having an upper wall and a lower wall, and an internal volume located between the upper and lower walls such that the body is able to float on water when placed thereon, and one or more photovoltaic modules mounted on an upper surface of the upper wall of the body, wherein at least one of, or optionally both of, the upper and lower walls of the body is formed from a drawn or deep-drawn sheet material, and wherein the internal volume within the body is provided with a series or array of internal partitions, baffles, or other internal space-dividing or internal space-reducing elements, and one or both of the upper and/or lower walls of the body comprise(s) an array or series of dimples, depressions, indentations, recesses or other surface deformations which extend or protrude into the internal volume or space within the body to create said internal partitions, baffles, or other internal space-dividing or internal space-reducing elements.
An automated method, using a computerized system, for determining start and stop times of at least one selected operation on a pipe deployment vessel, comprising: measuring at least one of tension or a pipe deployed from a reel on the vessel and velocity of pipe motion with respect to the vessel; measuring rotational velocity of the reel; measuring geodetic position of the vessel with respect to time; conducting the measured tension, pipe motion velocity, rotational velocity and geodetic position to a computer, the computer automatically determining the start and stop times of the at least one selected operation from the measured tension, motion velocity, rotational velocity and geodetic position upon detection of conditions indicating start and stop of each of the operations based only on said sensor measurements; and recording the determined start and stop times of the at least one selected operation; determining an elapsed time to perform each operation using the recorded start and stop times of each operation. measuring at least one of tension or a pipe deployed from a reel on the vessel and velocity of pipe motion with respect to the vessel; measuring rotational velocity of the reel; measuring geodetic position of the vessel with respect to time; conducting the measured tension, pipe motion velocity, rotational velocity and geodetic position to a computer, the computer automatically determining the start and stop times of the at least one selected operation from the measured tension, motion velocity, rotational velocity and geodetic position upon detection of conditions indicating start and stop of each of the operations based only on said sensor measurements; and recording the determined start and stop times of the at least one selected operation; determining an elapsed time to perform each operation using the recorded start and stop times of each operation.
A method for compressing a label stack, wherein the method comprises: obtaining, by a network device, a first label stack corresponding to a forwarding path, wherein the first label stack comprises node labels corresponding to each node on the forwarding path; selecting, by the network device, a first node label from the first label stack, wherein when forwarding a packet, a node corresponding to the first node label is capable of encapsulating at least two layers of labels in the packet; replacing, by the network device, at least two adjacent labels located after the first node label in the first label stack with a first compression label, to generate a second label stack; and sending, by the network device, label configuration information to the node corresponding to the first node label, wherein the label configuration information includes a correspondence between the first compression label and the at least two adjacent labels; instructing, by the network device, a source node on the forwarding path to perform packet processing according to the second label stack. obtaining, by a network device, a first label stack corresponding to a forwarding path, wherein the first label stack comprises node labels corresponding to each node on the forwarding path; selecting, by the network device, a first node label from the first label stack, wherein when forwarding a packet, a node corresponding to the first node label is capable of encapsulating at least two layers of labels in the packet; replacing, by the network device, at least two adjacent labels located after the first node label in the first label stack with a first compression label, to generate a second label stack; and sending, by the network device, label configuration information to the node corresponding to the first node label, wherein the label configuration information includes a correspondence between the first compression label and the at least two adjacent labels; instructing, by the network device, a source node on the forwarding path to perform packet processing according to the second label stack.
A method of tuning a controller (12, 38, 50), the controller configured to control at least part of a process, the method comprising: during each of a plurality of iterations: updating a policy of the controller; controlling the at least part of the process using the controller with the updated policy; associating the updated policy with a performance level of the controller in controlling the at least part of the process; and wherein for each iteration, the updated policy is determined using the associations generated during one or more previous iterations between the policies and the corresponding performance levels of the controller in controlling the at least part of the process, the method characterized in that the updated policy is optimized to have a highest likelihood of producing a positive change in the performance level of the controller in controlling the at least part of the process rather than optimized to have a highest likelihood of producing a largest positive magnitude of change in the performance level of the controller in controlling the at least part of the process relative to the previous iteration. during each of a plurality of iterations: updating a policy of the controller; controlling the at least part of the process using the controller with the updated policy; associating the updated policy with a performance level of the controller in controlling the at least part of the process; and updating a policy of the controller; controlling the at least part of the process using the controller with the updated policy; associating the updated policy with a performance level of the controller in controlling the at least part of the process; and wherein for each iteration, the updated policy is determined using the associations generated during one or more previous iterations between the policies and the corresponding performance levels of the controller in controlling the at least part of the process, the method characterized in that the updated policy is optimized to have a highest likelihood of producing a positive change in the performance level of the controller in controlling the at least part of the process rather than optimized to have a highest likelihood of producing a largest positive magnitude of change in the performance level of the controller in controlling the at least part of the process relative to the previous iteration.
A method of repeated co-transfection of a cell with at least one nucleic acid of interest comprising the steps of adding to the cell a) SOCS1 mRNA; and simultaneously or subsequently b) at least one nucleic acid of interest encoding at least one polypeptide of interest; wherein at least step b) is repeated at least once, wherein said SOCS1 mRNA has a poly tail at its 3'end comprising at least 2000 adenines. a) SOCS1 mRNA; and simultaneously or subsequently b) at least one nucleic acid of interest encoding at least one polypeptide of interest; wherein at least step b) is repeated at least once,
A block copolymer comprising an aromatic vinyl-based polymer block, a conjugated diene-based polymer block and a coupling agent linking group, wherein the conjugated diene-based polymer block comprises a hydroxyl group, and the hydroxyl group content is 0.5 mol% to 12.0 mol%, determined by 1 H NMR measurement and based on the double bond content of the conjugated diene-based monomer unit. wherein the conjugated diene-based polymer block comprises a hydroxyl group, and the hydroxyl group content is 0.5 mol% to 12.0 mol%, determined by 1 H NMR measurement and based on the double bond content of the conjugated diene-based monomer unit.
A rubber composition comprising a modified isoprene polymer, a rubber component (besides the modified isoprene polymer), and a reinforcing filler, the reinforcing filler containing carbon black and/or silica, the modified isoprene polymer having a functional group having a nitrogen atom and a silicon atom at a terminal, and a viscosity of the modified isoprene polymer being 2000 Pa·s or less, the viscosity being measured by using a cone and plate viscometer in accordance with JIS K 5600-2-3 at a temperature of 40°C. the reinforcing filler containing carbon black and/or silica, the modified isoprene polymer having a functional group having a nitrogen atom and a silicon atom at a terminal, and a viscosity of the modified isoprene polymer being 2000 Pa·s or less, the viscosity being measured by using a cone and plate viscometer in accordance with JIS K 5600-2-3 at a temperature of 40°C.
Vacuum operated brake booster, through the casing of which there extend tubes for the introduction of the screws for fixing the brake booster to the wall of the passenger compartment of the vehicle, each tube being fixed by crimping by means of the rear end thereof in a hole of the base of the casing, which brake booster is characterized in that - the rear end of the tube has: * a peripheral fold forming a rear groove, and * an extension of the tube beyond the peripheral groove in order to be folded toward the outer side and to form a crimping lip, - the base of the casing has a hole which receives the rear end of the tube, * the hole being bordered by a recessed ring which has a form complementary to that of the groove of the tube with an outer edge which moves against the outer edge of the rear groove and an inner edge which moves against the extension of the tube, - the extension is folded above the edge of the recessed ring of the base and blocked in the groove. - the rear end of the tube has: * a peripheral fold forming a rear groove, and * an extension of the tube beyond the peripheral groove in order to be folded toward the outer side and to form a crimping lip, * a peripheral fold forming a rear groove, and * an extension of the tube beyond the peripheral groove in order to be folded toward the outer side and to form a crimping lip, - the base of the casing has a hole which receives the rear end of the tube, * the hole being bordered by a recessed ring which has a form complementary to that of the groove of the tube with an outer edge which moves against the outer edge of the rear groove and an inner edge which moves against the extension of the tube, * the hole being bordered by a recessed ring which has a form complementary to that of the groove of the tube with an outer edge which moves against the outer edge of the rear groove and an inner edge which moves against the extension of the tube, - the extension is folded above the edge of the recessed ring of the base and blocked in the groove.
A roof construction for a vehicle having an opening in its fixed roof, comprising at least one panel (3, 3') for at least closing said opening, said panel (3, 3') comprising a first and a second layer of glass (4, 5) and in between said first and second layer of glass a sheet of photovoltaic cells as a third layer, characterized in that the sheet of photovoltaic cells has an active layer of a thin film of solar cell material, said active layer extending in a first area of the sheet of photovoltaic cells which is semi-transparent and which is located in a central area of the panel and in a second area of the sheet of photovoltaic cells which is substantially opaque and which is located near an edge of the panel (3, 3') and in that the semi transparency of the photovoltaic cells in the first area is created by laser engraving of lines or holes into the active layer of the photo voltaic cells such that visible light can travel through the engraved lines or holes.