mhurhangee/ep-ind-claims huggingface dataset:
An ASA-based resin composition, comprising: 20 to 30 % by weight of an acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer containing acrylate rubber having an average particle diameter of 50 to 150 nm as a core measured according the description; 30 to 40 % by weight of an alkyl methacrylate-aromatic vinyl compound-vinyl cyanide compound copolymer; and 30 to 40 % by weight of a poly(alkyl methacrylate) resin, wherein the alkyl methacrylate-aromatic vinyl compound-vinyl cyanide compound copolymer comprises 45 to 65 % by weight of an alkyl methacrylate, 25 to 35 % by weight of an aromatic vinyl compound, and 10 to 20 % by weight of a vinyl cyanide compound, wherein the ASA-based resin composition has a total rubber content of 10 to 15 % by weight, wherein the total rubber content is measured according to FT-IR. 20 to 30 % by weight of an acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer containing acrylate rubber having an average particle diameter of 50 to 150 nm as a core measured according the description; 30 to 40 % by weight of an alkyl methacrylate-aromatic vinyl compound-vinyl cyanide compound copolymer; and 30 to 40 % by weight of a poly(alkyl methacrylate) resin, wherein the alkyl methacrylate-aromatic vinyl compound-vinyl cyanide compound copolymer comprises 45 to 65 % by weight of an alkyl methacrylate, 25 to 35 % by weight of an aromatic vinyl compound, and 10 to 20 % by weight of a vinyl cyanide compound, wherein the ASA-based resin composition has a total rubber content of 10 to 15 % by weight, wherein the total rubber content is measured according to FT-IR.
A nitrification inhibiting product comprising a basic reaction product from the reaction of formaldehyde, an ammonia source, urea, and a nitrification inhibitor, wherein the nitrification inhibitor is selected from the group consisting of 2-chloro-6-trichloromethyl-pyridine, 5-ethoxy-3-trichloromethyl-1,2,4-thiadiazol, dicyandiamide, 2- amino-4-chloro-6-methyl-pyrimidine, 1,3-benzothiazole-2-thiol, 4-amino-N-1,3-thiazol-2-ylbenzenesulfonamide, thiourea, guanidine, 3,4-dimethylpyrazole phosphate, 2,4-diamino-6-trichloromethyl-5-triazine, polyetherionophores, 4-amino-1,2,4-triazole, 3-mercapto-1,2,4-triazole, potassium azide, carbon bisulfide, sodium trithiocarbonate, ammonium dithiocarbamate, 2,3-dihydro-2,2-dimethyl-7-benzofuranol, methyl-carbamate, N-(2,6- dimethylphenyl)-N-(methoxyacetyl)-alanine methyl ester, ammonium thiosulfate, 1- hydroxypyrazole, 2-methylpyrazole-1-carboxamide, and combinations thereof.
A ballistic helmet comprising a ballistic shell, characterised in that within the thickness of the ballistic shell there is provided one or more circuit layers forming a circuit, which circuit comprises a power bus and a data bus, and wherein one or more power connections and/or one or more data connections are provided on the inside and/or on an edge of the ballistic shell for providing power and data to/from one or more electrical devices through the circuit, wherein the ballistic helmet comprises integrated earpieces (20, 21) for the provision of an audio signal to the wearer of the helmet, and wherein at least one of the data connections and/or at least one of the power connections is provided adjacent each earpiece, thereby providing data and/or power connections for the earpieces to the circuit, wherein the power and data buses (3, 4) comprise conductive patterns extending across the ballistic shell.
A method, comprising: receiving, by a device, spectroscopic data associated with a dynamic process; generating, by the device, a first principal component analysis, PCA, model based on a first block of spectra from the spectroscopic data; projecting, by the device, a second block of spectra from the spectroscopic data to the first PCA model generated based on the first block of spectra; determining, by the device, a value of a metric associated with the second block based on projecting the second block of spectra to the first PCA model; determining, by the device, that the dynamic process has not reached an end point based on the value of the metric associated with the second block; characterised in that the method further comprises: generating a second PCA model based on a third block of spectra from the spectroscopic data; projecting a fourth block of spectra from the spectroscopic data to the second PCA model generated based on the third block of spectra; determining a value of the metric associated with the fourth block based on projecting the fourth block of spectra to the second PCA model; and determining whether the dynamic process has reached an end point based on the value of the metric associated with the fourth block. receiving, by a device, spectroscopic data associated with a dynamic process; generating, by the device, a first principal component analysis, PCA, model based on a first block of spectra from the spectroscopic data; projecting, by the device, a second block of spectra from the spectroscopic data to the first PCA model generated based on the first block of spectra; determining, by the device, a value of a metric associated with the second block based on projecting the second block of spectra to the first PCA model; determining, by the device, that the dynamic process has not reached an end point based on the value of the metric associated with the second block; characterised in that the method further comprises: generating a second PCA model based on a third block of spectra from the spectroscopic data; projecting a fourth block of spectra from the spectroscopic data to the second PCA model generated based on the third block of spectra; determining a value of the metric associated with the fourth block based on projecting the fourth block of spectra to the second PCA model; and determining whether the dynamic process has reached an end point based on the value of the metric associated with the fourth block. generating a second PCA model based on a third block of spectra from the spectroscopic data; projecting a fourth block of spectra from the spectroscopic data to the second PCA model generated based on the third block of spectra; determining a value of the metric associated with the fourth block based on projecting the fourth block of spectra to the second PCA model; and determining whether the dynamic process has reached an end point based on the value of the metric associated with the fourth block.
Press granulation process for kieserite and kieserite-containing mineral fertilizers, characterized by a) the fine-grained mineral fertilizer being partially plasticized in a preliminary treatment stage by adjusting the water content to W = 8.5 ± 2 percent by mass, and conditioned by adding hydrophilic substances which have inherent lubricant qualities or can attain them by means of a treatment, namely substances rich in starch and/or protein, late tertiary soft brown coal with a high content of humic acid and humic matter, peats, wallpaper paste, clay or substances rich in kaolin, low-fat curd or other high-protein and low-fat dairy products, alone or in mixtures, in dry substance terms in quantities of 0.5 to 10 percent by mass as a minimum in relation to the quantity of fertilizer used, and with the pre-treatment of the mineral fertilizer with water and the hydrophilic substances performed in mixers with a high turbulence, b) the conditioned, plasticized mineral fertilizer from stage a) being subjected to compression moulding and press compaction in a flat matrix pellet press, resulting in pellet strands with a smooth, dense cylinder surface, c) the pellets created in b) being hardened by gentle drying, leading to a firm granulate bond. d) the hardened cylinder-shaped pellet strands being brought to the desired granulate length by breaking. a) the fine-grained mineral fertilizer being partially plasticized in a preliminary treatment stage by adjusting the water content to W = 8.5 ± 2 percent by mass, and conditioned by adding hydrophilic substances which have inherent lubricant qualities or can attain them by means of a treatment, namely substances rich in starch and/or protein, late tertiary soft brown coal with a high content of humic acid and humic matter, peats, wallpaper paste, clay or substances rich in kaolin, low-fat curd or other high-protein and low-fat dairy products, alone or in mixtures, in dry substance terms in quantities of 0.5 to 10 percent by mass as a minimum in relation to the quantity of fertilizer used, and with the pre-treatment of the mineral fertilizer with water and the hydrophilic substances performed in mixers with a high turbulence, b) the conditioned, plasticized mineral fertilizer from stage a) being subjected to compression moulding and press compaction in a flat matrix pellet press, resulting in pellet strands with a smooth, dense cylinder surface, c) the pellets created in b) being hardened by gentle drying, leading to a firm granulate bond. d) the hardened cylinder-shaped pellet strands being brought to the desired granulate length by breaking.
A method of receiving multimedia data, the method comprising: receiving a first sub-segment of a segment of multimedia data, wherein the segment is a portion of the multimedia data corresponding to an interval of playback time of a given duration and the segment is divided into a plurality of sub-segments, the first sub-segment comprising a first set of one or more encoded data units (210A, 210B), wherein a data unit is a video frame of the multimedia data, and a first sub-segment header including a table of frame pointers that identify an offset of each of the data units (210A, 210B) within the first sub-segment, wherein at least one of the data units (210A, 210B) refers to a data unit of a second sub-segment of the segment; after receiving the first sub-segment and before receiving the second sub-segment, decoding some of the data units (210A, 210B) of the first sub-segment, receiving the second sub-segment, the second sub-segment comprising a second set of one or more encoded data units (216A, 216B) and a second sub-segment header including a table of frame pointers that identify an offset of each of the data units (216A, 216B) within the second sub-segment; and processing at least a portion of the segment after receiving the first sub-segment and the second sub-segment. receiving a first sub-segment of a segment of multimedia data, wherein the segment is a portion of the multimedia data corresponding to an interval of playback time of a given duration and the segment is divided into a plurality of sub-segments, the first sub-segment comprising a first set of one or more encoded data units (210A, 210B), wherein a data unit is a video frame of the multimedia data, and a first sub-segment header including a table of frame pointers that identify an offset of each of the data units (210A, 210B) within the first sub-segment, wherein at least one of the data units (210A, 210B) refers to a data unit of a second sub-segment of the segment; after receiving the first sub-segment and before receiving the second sub-segment, decoding some of the data units (210A, 210B) of the first sub-segment, receiving the second sub-segment, the second sub-segment comprising a second set of one or more encoded data units (216A, 216B) and a second sub-segment header including a table of frame pointers that identify an offset of each of the data units (216A, 216B) within the second sub-segment; and processing at least a portion of the segment after receiving the first sub-segment and the second sub-segment.
A gateway device selection method, wherein the method comprises: Receiving, by a terminal device, a message from a gateway device, wherein the message comprises identification information of the gateway device, and the identification information of the gateway device is used to indicate information about the gateway device; Determining, by the terminal device, that the identification information of the gateway device is consistent with identification information of a gateway device that is preset on the terminal device, and using the gateway device as a selected gateway device; and sending, by the terminal device, a data packet to the selected gateway device, characterized in that the message is a router advertisement, RA, message, the RA message comprises an option field, and the option field is used to carry the identification information of the gateway device. Receiving, by a terminal device, a message from a gateway device, wherein the message comprises identification information of the gateway device, and the identification information of the gateway device is used to indicate information about the gateway device; Determining, by the terminal device, that the identification information of the gateway device is consistent with identification information of a gateway device that is preset on the terminal device, and using the gateway device as a selected gateway device; and sending, by the terminal device, a data packet to the selected gateway device, characterized in that the message is a router advertisement, RA, message, the RA message comprises an option field, and the option field is used to carry the identification information of the gateway device.
A method for a network entity, NE, to optimize positioning of a user equipment, UE (UE1, UE2, UE3), where the reliability of positioning of a UE depends on static circumstances and situational/environmental circumstances, where static circumstances are the sensor capabilities and sensor quality related to the UE (UE1, UE2, UE3), radio access network, RAN, capabilities, and general system limitations, where static circumstances remain the same regardless of the position of the UE, where situational/environmental circumstances depend on the situation or environment of the UE, where situational/environmental circumstances change with the position and/or other physical states of the UE, wherein the NE requests a quality report from a measurement unit, MU, to enable the MU to report on quality changes due to situational or environmental circumstances to the NE; wherein the request indicates the positioning technologies used for quality reporting, wherein the NE informs the MU which sensors and technologies to monitor and requests a report from these sensors and technologies, wherein the NE receives results from measurements performed by the MU, which measurements are performed by the MU with or without further network assistance, wherein in response to the NE request, the NE receives a message including the MU quality report in order to enable the NE to decide on the best positioning method for the UE in the current situation for the indicated sensors and technologies, and wherein the NE perform the position calculation.
A driving assistance apparatus comprising a processor that allows execution of a driving assist process for a subject vehicle on a basis of a detection result from a sensor that detects a situation around the subject vehicle, the processor being configured to: when a preceding vehicle is recognized by the sensor, execute a first driving assistance process to keep an inter-vehicle distance to the preceding vehicle constant; characterized by determine whether or not the preceding vehicle is traveling outside an area including an intersection and vicinities of the intersection; when the preceding vehicle is traveling outside the area, determine whether or not a direction indicator of the preceding vehicle on a road shoulder side is lighting; and when the direction indicator of the preceding vehicle is lighting, generate a control command for stopping the first driving assistance process and performing a second driving assistance process different from the first driving assistance process, the first driving assistance process being to follow the preceding vehicle, the second driving assistance process being a driving assistance process for increasing the inter-vehicle distance to the preceding vehicle. the processor being configured to: when a preceding vehicle is recognized by the sensor, execute a first driving assistance process to keep an inter-vehicle distance to the preceding vehicle constant; characterized by determine whether or not the preceding vehicle is traveling outside an area including an intersection and vicinities of the intersection; when the preceding vehicle is traveling outside the area, determine whether or not a direction indicator of the preceding vehicle on a road shoulder side is lighting; and when the direction indicator of the preceding vehicle is lighting, generate a control command for stopping the first driving assistance process and performing a second driving assistance process different from the first driving assistance process, the first driving assistance process being to follow the preceding vehicle, the second driving assistance process being a driving assistance process for increasing the inter-vehicle distance to the preceding vehicle.
A process for making headgear for holding a respiratory mask in position on a patient's face, the process comprising the steps of: laminating at least one foam material and at least one fabric material to one another; thermoforming the laminated at least one foam material and at least one fabric material to form at least one thermoformed sheet; ultrasonically die cutting the at least one thermoformed sheet into at least two strap portions of the headgear; and joining the at least two strap portions to one another, wherein the thermoformed and ultrasonically die cut at least two strap portions have rounded edges. laminating at least one foam material and at least one fabric material to one another; thermoforming the laminated at least one foam material and at least one fabric material to form at least one thermoformed sheet; ultrasonically die cutting the at least one thermoformed sheet into at least two strap portions of the headgear; and joining the at least two strap portions to one another, wherein the thermoformed and ultrasonically die cut at least two strap portions have rounded edges.
Tyre building machine for applying apex strips (91, 92) to beads to form a bead-apex assembly for a green tyre, comprising a bead holder for holding the beads, wherein the tyre building machine comprises a first gripper and a second gripper for engaging and moving the apex strips in a direction of conveyance towards the bead, wherein the first gripper is moveable between a first start position and a first end position and the second gripper is moveable between a second start position and a second end position, wherein the tyre building machine is provided with a first wedge, a second wedge, a third wedge and a fourth wedge, wherein the first gripper and the second gripper are biased to a closed state in which the grippers are arranged to engage the apex strips, and wherein the wedges are arranged for countering the bias of the grippers when the grippers are at one of the start positions or the end positions.
An intravenous narcotic emulsion formulation effective for use in treating a subject for cancer pain, wherein said emulsion formulation comprises: fentanyl as the only active agent; oil; water; a surfactant; and an emulsification enhancer. fentanyl as the only active agent; oil; water; a surfactant; and an emulsification enhancer.
Method of non-orthogonal transmission of a signal, intended for a system of N sources (S 1, S 2,...S N), M relays (R 1. R 2,...R M) R j with j=1 to M and a single receiver according to which the simultaneous transmission on one and the same spectral resource by the relays is simultaneous with a simultaneous transmission on one and the same spectral resource by the sources N ≥ 2, M ≥ 2, the method comprising per relay R j: - a step 2 at the relay R j of iterative joint detection/decoding of N messages (u 1, u 2,..., u N) emitted respectively by the N sources during αN first transmission intervals to obtain decoded messages, - a step 3 at the relay R j of detecting errors in the decoded messages (u 1, u 2,..., u N) to obtain errorless messages detected, - a step 4 at the relay R j of interleaving just the errorless messages detected to obtain interleaved messages, followed by a step 5 at the relay R j of algebraic network coding of vector a j = [a 1,j a 2,j... a N,j] T consisting of a linear combination in a finite field of order strictly greater than two of the interleaved messages to obtain a network coded message, the linear combinations being pairwise independent between the relays of the system, - a step 6 at the relay R j of shaping comprising a channel coding to generate a signal representative of the network coded message and to transmit this signal during the (1- α) N following transmission intervals simultaneously with a transmission by the sources, with α∈]0.1[, with αN and (1- α) N being integers. - a step 2 at the relay R j of iterative joint detection/decoding of N messages (u 1, u 2,..., u N) emitted respectively by the N sources during αN first transmission intervals to obtain decoded messages, - a step 3 at the relay R j of detecting errors in the decoded messages (u 1, u 2,..., u N) to obtain errorless messages detected, - a step 4 at the relay R j of interleaving just the errorless messages detected to obtain interleaved messages, followed by a step 5 at the relay R j of algebraic network coding of vector a j = [a 1,j a 2,j... a N,j] T consisting of a linear combination in a finite field of order strictly greater than two of the interleaved messages to obtain a network coded message, the linear combinations being pairwise independent between the relays of the system, - a step 6 at the relay R j of shaping comprising a channel coding to generate a signal representative of the network coded message and to transmit this signal during the (1- α) N following transmission intervals simultaneously with a transmission by the sources, with α∈]0.1[, with αN and (1- α) N being integers.