mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a high-capacity positive electrode active material for a lithium secondary battery comprising a composite oxide of Chemical Formula 1 [Chemical Formula 1] Li x Ni y Fe z Mn w O 2, where, x, y, and z satisfy the following Equations, respectively: 1≤x≤1.8, 0<y≤0.13, 0<z≤0.13, and 0.6≤w≤1, or [Chemical Formula 3] Li 1.2 Ni 0.104 Fe 0.104 Mn 0.592 O 2, the method comprising: adding a nickel source material, an iron source material, and a manganese source material to a solvent, and adding a carbon source material at a content of 0.1 to 0.5 mol% based on the total content of the metal to prepare a metal mixed solution; controlling a pH of the metal mixed solution between 5 to 12 to react the metal mixed solution; drying the hydrate prepared by the reaction in a vacuum oven; and mixing a lithium source material with the hydrate and then heat-treating the mixture at 500 to 800°C for 3 to 10 hours under inert atmosphere, wherein the carbon source material is at least one kind selected from a group consisting of sucrose, polyvinylalcohol, polyethyleneglycol, oxalic acid, resorcinol, citric acid, and cellulose acetate. adding a nickel source material, an iron source material, and a manganese source material to a solvent, and adding a carbon source material at a content of 0.1 to 0.5 mol% based on the total content of the metal to prepare a metal mixed solution; controlling a pH of the metal mixed solution between 5 to 12 to react the metal mixed solution; drying the hydrate prepared by the reaction in a vacuum oven; and mixing a lithium source material with the hydrate and then heat-treating the mixture at 500 to 800°C for 3 to 10 hours under inert atmosphere, wherein the carbon source material is at least one kind selected from a group consisting of sucrose, polyvinylalcohol, polyethyleneglycol, oxalic acid, resorcinol, citric acid, and cellulose acetate.
An enclosed liquid pharmaceutical composition container, comprising a liquid phase and an gaseous phase, wherein the liquid phase comprises cabazitaxel, polysorbate 80, ethanol, and one or more pH adjusters to maintain pH 2.8-6.0, and the gaseous phase is saturated with CO 2.
A compound of Formula IV or a pharmaceutically acceptable salt, stereoisomer, polymorph, or solvate thereof: wherein: R 1 is selected from the group consisting of C R 10, and S 2 R 11; R 2 and R 3 are each independently selected from the group consisting of H, CN, halogen, and C 1-6 alkyl; R 4 and R 5 are each independently selected from the group consisting of H, halogen, and CN; Y is selected from the group consisting of N and CR 9; Z is selected from the group consisting of N and CR 7; W is selected from the group consisting of N and CR 8; R 6 is selected from the group consisting of H and CN; R 7, R 8 and R 9 are each independently selected from the group consisting of H, halogen, CN, C 1-6 alkyl, C 1-6 alkoxyl, and C NR 12 R 13; R 10 and R 11 are each independently selected from the group consisting of C 1-6 alkyl, C 3-10 cycloalkyl, 3- to 10-membered heterocyclyl, C 6-14 aryl, 5- to 14-membered heteroaryl, C 7-20 aralkyl, and NR 12 R 13; R 12 and R 13 are each independently selected from the group consisting of H and C 1-6 alkyl; wherein the above alkyl, cycloalkyl, heterocyclyl, aryl, heteroaryl and aralkyl are each optionally substituted with 1, 2 or 3 substituents independently selected from the group consisting of halogen, CN, and C 1-4 alkyl. R 1 is selected from the group consisting of C R 10, and S 2 R 11; R 2 and R 3 are each independently selected from the group consisting of H, CN, halogen, and C 1-6 alkyl; R 4 and R 5 are each independently selected from the group consisting of H, halogen, and CN; Y is selected from the group consisting of N and CR 9; Z is selected from the group consisting of N and CR 7; W is selected from the group consisting of N and CR 8; R 6 is selected from the group consisting of H and CN; R 7, R 8 and R 9 are each independently selected from the group consisting of H, halogen, CN, C 1-6 alkyl, C 1-6 alkoxyl, and C NR 12 R 13; R 10 and R 11 are each independently selected from the group consisting of C 1-6 alkyl, C 3-10 cycloalkyl, 3- to 10-membered heterocyclyl, C 6-14 aryl, 5- to 14-membered heteroaryl, C 7-20 aralkyl, and NR 12 R 13; R 12 and R 13 are each independently selected from the group consisting of H and C 1-6 alkyl; wherein the above alkyl, cycloalkyl, heterocyclyl, aryl, heteroaryl and aralkyl are each optionally substituted with 1, 2 or 3 substituents independently selected from the group consisting of halogen, CN, and C 1-4 alkyl.
Strand of plastic having a first and a second end, wherein the two ends can be connected to one another such that a ring serving to enclose cables or lines is formed, wherein the strand, over its thickness, has a first, inner elastomer layer and a second elastomer layer atop the first, wherein the elastomer of the first elastomer layer is softer than the elastomer of the second elastomer layer, wherein the first elastomer layer has ribs or studs on an inner side, wherein the strand, over its thickness, has a third, outer elastomer layer, the elastomer of which is softer than the elastomer of the second elastomer layer, wherein, for the purpose of connecting the ends, the first end of the strand has a first elastomer connecting portion, which has a receiving opening, and the second end of the strand has a second elastomer connecting portion, which has a plug-in region that can be inserted into the receiving opening and wherein an inner face of the receiving opening is at partially provided by an elastomer coating which is harder than the rest of the first connecting portion, and an outer face of the plug-in region is at least partially provided by an elastomer coating which is harder than the rest of the second connecting portion. wherein the strand, over its thickness, has a first, inner elastomer layer and a second elastomer layer atop the first, wherein the elastomer of the first elastomer layer is softer than the elastomer of the second elastomer layer, wherein the first elastomer layer has ribs or studs on an inner side, wherein the strand, over its thickness, has a third, outer elastomer layer, the elastomer of which is softer than the elastomer of the second elastomer layer, wherein, for the purpose of connecting the ends, the first end of the strand has a first elastomer connecting portion, which has a receiving opening, and the second end of the strand has a second elastomer connecting portion, which has a plug-in region that can be inserted into the receiving opening and wherein an inner face of the receiving opening is at partially provided by an elastomer coating which is harder than the rest of the first connecting portion, and an outer face of the plug-in region is at least partially provided by an elastomer coating which is harder than the rest of the second connecting portion.
A method for waking up devices in batches, applied to a low-rate wireless personal area network, LR-WPAN, comprising: generating, by a coordinator, a wake-up broadcast frame, wherein the wake-up broadcast frame comprises a wake-up indication field, and the wake-up indication field is used to instruct multiple devices in the LR-WPAN to either wake up or to keep in a running state; and periodically sending, by the coordinator, the wake-up broadcast frame with a time period T2 during duration T1, wherein T1 is not less than a sum of T3 and T4, T2 is not greater than T4, T3 is maximum hibernation duration of the multiple devices, and T4 is a minimum running time window of the multiple devices. generating, by a coordinator, a wake-up broadcast frame, wherein the wake-up broadcast frame comprises a wake-up indication field, and the wake-up indication field is used to instruct multiple devices in the LR-WPAN to either wake up or to keep in a running state; and periodically sending, by the coordinator, the wake-up broadcast frame with a time period T2 during duration T1, wherein T1 is not less than a sum of T3 and T4, T2 is not greater than T4, T3 is maximum hibernation duration of the multiple devices, and T4 is a minimum running time window of the multiple devices.
A method of sealing leaks in an enclosure, the method comprising: (a) securing points of access to the interior of an enclosure with substantially airtight barriers; (b) generating a pressure differential between the interior and exterior of the enclosure; (c) creating a fog of particles of a sealant in the interior of the enclosure, said particles having an outer surface with a tack that diminishes over time: (d) said sealant particles having a temporally controlled tack, controlling the tack of said sealant particles by controlling the temperature and humidity of the environment surrounding a source of sealant particles; and controlling the particle size of the sealant particles; and (e) adhering sealant particles from fog flowing out of enclosure leaks to surfaces adjacent to leaks and to other particles to form a seal; (f) wherein sealant particles that do not form a seal will not adhere to interior surfaces of the enclosure or to other particles after a period of time. (a) securing points of access to the interior of an enclosure with substantially airtight barriers; (b) generating a pressure differential between the interior and exterior of the enclosure; (c) creating a fog of particles of a sealant in the interior of the enclosure, said particles having an outer surface with a tack that diminishes over time: (d) said sealant particles having a temporally controlled tack, controlling the tack of said sealant particles by controlling the temperature and humidity of the environment surrounding a source of sealant particles; and controlling the particle size of the sealant particles; and (e) adhering sealant particles from fog flowing out of enclosure leaks to surfaces adjacent to leaks and to other particles to form a seal; (f) wherein sealant particles that do not form a seal will not adhere to interior surfaces of the enclosure or to other particles after a period of time.
A method for testing a vehicle-mounted voice device, comprising: obtaining a test corpus and a data label corresponding to the test corpus; parsing the test corpus based on the data label corresponding to the test corpus to obtain audio data corresponding to each channel included in the test corpus; adjusting a working mode of each playback channel in a voice playback device based on the audio data corresponding to each channel included in the test corpus, to play the audio data corresponding to the test corpus; obtaining a recognition result of a vehicle-mounted voice device; and determining a performance of the vehicle-mounted voice device based on the recognition result and the data label; wherein the data label indicates that the test corpus is a corpus for controlling a vehicle-mounted air conditioner, and obtaining the recognition result of the vehicle-mounted voice device comprises: determining reference noise data based on the data label; collecting first voice data in the vehicle; extracting noise data from the first voice data based on the data label; and determining the recognition result of the vehicle-mounted voice device based on a matching degree between the noise data and the reference noise data. obtaining a test corpus and a data label corresponding to the test corpus; parsing the test corpus based on the data label corresponding to the test corpus to obtain audio data corresponding to each channel included in the test corpus; adjusting a working mode of each playback channel in a voice playback device based on the audio data corresponding to each channel included in the test corpus, to play the audio data corresponding to the test corpus; obtaining a recognition result of a vehicle-mounted voice device; and determining a performance of the vehicle-mounted voice device based on the recognition result and the data label; wherein the data label indicates that the test corpus is a corpus for controlling a vehicle-mounted air conditioner, and obtaining the recognition result of the vehicle-mounted voice device comprises: determining reference noise data based on the data label; collecting first voice data in the vehicle; extracting noise data from the first voice data based on the data label; and determining the recognition result of the vehicle-mounted voice device based on a matching degree between the noise data and the reference noise data. determining reference noise data based on the data label; collecting first voice data in the vehicle; extracting noise data from the first voice data based on the data label; and determining the recognition result of the vehicle-mounted voice device based on a matching degree between the noise data and the reference noise data.
An air cushion vehicle comprising a system for controlling the air cushion vehicle, the system comprising propeller towers, wherein the system is configured to control the air cushion vehicle by the propeller towers, wherein a first propeller tower and a second propeller tower are located in proximity to the bow of the air cushion vehicle, a third propeller tower and a fourth propeller tower are located in proximity to the stern of the air cushion vehicle, the first propeller tower and the third propeller tower are located in proximity to a first side wall of the air cushion vehicle, the second propeller tower and the fourth propeller tower are located in proximity to a second side wall of the air cushion vehicle, and the first side wall defines a first side of the air cushion vehicle, the system including propellers for moving the air cushion vehicle, including a first propeller for the first propeller tower, a second propeller for the second propeller tower, a third propeller for the third propeller tower, and a fourth propeller for the fourth propeller tower, and mounting seats for mounting the propeller towers to the air cushion vehicle, a first mounting seat for the first propeller tower, a second mounting seat for the second propeller tower, a third mounting seat for the third propeller tower, and a fourth mounting seat for the fourth propeller tower, such that the first mounting seat is rotatable at a first pivot point, the second mounting seat is rotatable at a second pivot point, the third mounting seat is rotatable at a third pivot point, and the fourth mounting seat is rotatable at a fourth pivot point so that each mounting seat is rotatable in a plane of a deck of the air cushion vehicle and relative to the air cushion vehicle, characterized in that when the air cushion vehicle lies parallel with the ground, the ground being a horizontal plane below the air cushion vehicle, an edge portion, located closest to the second side wall, of the second mounting seat is located closer to the ground than an opposite edge portion in relation to the second pivot point in the second mounting seat, providing a tilt of the second propeller in response to rotation of the second mounting seat at the second pivot point, and in response to the rotation of the second mounting seat, the second propeller tower directs an air flow produced with the second propeller over the second side wall of the air cushion vehicle and, due to the tilt of the second propeller, partly downwardly relative to a horizontal plane defined by the ground, the second air flow exerting a force configured to lift the second side wall of the air cushion vehicle upwardly from the ground.
A method for an enhanced intrusion detection system, a security device receiving alerts sent by an intrusion detection system monitoring an information system infrastructure, the method comprising the following steps in the security device: defining for a received alert a time interval including a timestamp of the alert, the received alert containing identifiers of devices, collecting log entries related to the time interval by interrogating at least one log server, wherein the log entries contains human readable text, retaining only the human readable text of the log entries, collecting metadata from said devices, transforming metadata into human readable text, and combining the human readable text from the metadata with the log entries, dividing the time interval into sub-intervals and distributing the log entries into their corresponding sub-intervals and for each sub-interval, concatenating the log entries to yield a paragraph, extracting from each paragraph one or more events using topic segmentation technique describing events of interest, combining the extracted events of the sub-intervals to create one or more sequences of events based on possible permutations of events belonging to the sub-intervals, declaring the alert as suspicious if one sequence of events is similar to a predefined sequence of events labeled as suspicious. defining for a received alert a time interval including a timestamp of the alert, the received alert containing identifiers of devices, collecting log entries related to the time interval by interrogating at least one log server, wherein the log entries contains human readable text, retaining only the human readable text of the log entries, collecting metadata from said devices, transforming metadata into human readable text, and combining the human readable text from the metadata with the log entries, dividing the time interval into sub-intervals and distributing the log entries into their corresponding sub-intervals and for each sub-interval, concatenating the log entries to yield a paragraph, extracting from each paragraph one or more events using topic segmentation technique describing events of interest, combining the extracted events of the sub-intervals to create one or more sequences of events based on possible permutations of events belonging to the sub-intervals, declaring the alert as suspicious if one sequence of events is similar to a predefined sequence of events labeled as suspicious.
A pressure-sensor device that comprises: - a pressure-sensitive component having a body, in particular of a monolithic type, in which a blind cavity is defined with a bottom surface and a peripheral surface, said bottom surface belonging to a membrane portion of said body, to said membrane portion there being operatively associated a detection element; and - a connection structure having a duct in communication with said cavity, that is to receive a fluid, a pressure of which is to be detected, said structure comprising: - a supporting body of the pressure-sensitive component, defining at least one respective passage; and - a compressible element that is designed to be in contact with said fluid and is configured for compensating possible variations of volume thereof; wherein said compressible element is positioned at least in part within said cavity, characterized in that - said structure comprises a positioning member (14; 17; 117) for positioning said compressible element, the positioning member (14, 17; 117) being made of a single piece with said supporting body or else associated or fixed thereto; - said positioning member (14; 17; 117) has a respective tubular portion (17a, 117a) defining a terminal stretch (15; A) of said duct (2b, 15, 19; A, B, C); and - said compressible element is housed or fixed on said tubular portion (17a, 117a) of the positioning member (14; 17; 117), with the tubular portion being surrounded by the compressible element. - a pressure-sensitive component having a body, in particular of a monolithic type, in which a blind cavity is defined with a bottom surface and a peripheral surface, said bottom surface belonging to a membrane portion of said body, to said membrane portion there being operatively associated a detection element; and - a connection structure having a duct in communication with said cavity, that is to receive a fluid, a pressure of which is to be detected, said structure comprising: - a supporting body of the pressure-sensitive component, defining at least one respective passage; and - a compressible element that is designed to be in contact with said fluid and is configured for compensating possible variations of volume thereof; - a supporting body of the pressure-sensitive component, defining at least one respective passage; and - a compressible element that is designed to be in contact with said fluid and is configured for compensating possible variations of volume thereof; - said structure comprises a positioning member (14; 17; 117) for positioning said compressible element, the positioning member (14, 17; 117) being made of a single piece with said supporting body or else associated or fixed thereto; - said positioning member (14; 17; 117) has a respective tubular portion (17a, 117a) defining a terminal stretch (15; A) of said duct (2b, 15, 19; A, B, C); and - said compressible element is housed or fixed on said tubular portion (17a, 117a) of the positioning member (14; 17; 117), with the tubular portion being surrounded by the compressible element.
Method for transporting a rotor blade of a wind turbine by a land vehicle and by a watercraft, wherein the rotor blade is transported by the land vehicle on roads to or from a transfer location at which it is unloaded from the watercraft or loaded onto the watercraft for further transport, wherein the rotor blade is arranged for transport in an at least two-part transporter device which comprises at least one root rack arranged on the blade root side and one tip rack arranged on the blade tip side, wherein the method comprises the following steps: arranging the rotor blade in the transporting device in a position favourable for road transport, arranging the transporting device on the land vehicle, transporting the rotor blade to or from the transfer location, offloading the rotor blade, which remains in the transporting device, from the land vehicle onto the watercraft or from the watercraft onto the land vehicle, wherein, for sea transport, the rotor blade is arranged in the transporting device in a position favourable therefor which differs from the position for road transport, and transporting the rotor blade by the watercraft, characterized in that the rotor blade is arranged in the transporting device so as to be rotatable about its rotor blade longitudinal axis, wherein the root rack and the tip rack of the transporting device are each designed in such a way as to allow a rotation of the rotor blade held thereby about its rotor blade longitudinal axis, and wherein the transporting device has a rotary unit, wherein, after reaching the transfer location and prior to further transport by the watercraft or the land vehicle, the rotor blade is rotated in the transporting device by the rotary unit from the position favourable for road transport into the position favourable for sea transport, or from the position favourable for seat transport into the position favourable for land transport.
Side wall or roof of a box body of a commercial vehicle, in particular a lorry, trailer or semitrailer, having a core layer and at least one outer skin, wherein the outer skin is formed from a plurality of panels which are connected to each other at adjacent sides, characterised in that the panels comprise a structural layer having at least one non-metal layer and a covering layer having at least one metal layer and in that the covering layers of the panels at the sides which are connected to each other extend further in the direction of the adjacent panels than the structural layers of the panels.