mhurhangee/ep-ind-claims huggingface dataset:
A multi-block copolymer, comprising: a first block having a glass transition temperature of -10°C or less; a second block having a glass transition temperature of 50°C or more; and a third block having a glass transition temperature of -10°C or less, wherein the first and third blocks are coupled at both ends of the second block, a crosslinkable functional group is present in a side chain of the first or third block, and the first or third block comprises a polymerized unit derived from 90 to 99.9 parts by weight of an acrylic acid ester monomer and 0.1 to 10 parts by weight of a copolymerizable monomer having the crosslinkable functional group. a first block having a glass transition temperature of -10°C or less; a second block having a glass transition temperature of 50°C or more; and a third block having a glass transition temperature of -10°C or less,
A corona ionization source assembly, comprising: a fine wire, including a wire core including a first material; a wire coating including a second material, where the wire coating surrounds a portion of the wire core, and the diameter of the wire coating is greater than the diameter of the wire core; characterised in that the portion of the wire core that is coated is arranged to mechanically secure the fine wire. a fine wire, including a wire core including a first material; a wire coating including a second material, where the wire coating surrounds a portion of the wire core, and the diameter of the wire coating is greater than the diameter of the wire core; a wire core including a first material; a wire coating including a second material, where the wire coating surrounds a portion of the wire core, and the diameter of the wire coating is greater than the diameter of the wire core; characterised in that the portion of the wire core that is coated is arranged to mechanically secure the fine wire.
Method for producing coco peat plant growth substrate, which method comprises acidifying a coco peat by adding to the coco peat an aqueous solution comprising: - 20 to 30 % (v/v) nitric acid; - 5 to 15 % (v/v) phosphoric acid; and - 5 to 15 % (v/v) sulfuric acid. wherein 1 to 100 mol H + is added per cubic meter coco peat, thereby providing coco peat plant growth substrate with a pH of less than 5. - 20 to 30 % (v/v) nitric acid; - 5 to 15 % (v/v) phosphoric acid; and - 5 to 15 % (v/v) sulfuric acid.
A composition comprising an Apical Sodium-dependent Bile Acid Transporter Inhibitor (ASBTI) which is or a pharmaceutically acceptable salt thereof for use in the treatment of a pediatric cholestatic liver disease in a human pediatric patient aged between 0 and 18 years of age.
Wheelchair (1; 101) with a frame (2; 102), with a seat (3; 103) comprising a seat element for a person to sit on as well as a backrest element, with wheels (4, 5, 6, 7; 104, 105, 106, 107) for rolling the wheelchair (1; 101) and with a drive device (15; 115) for driving at least one of the wheels (4, 5; 104, 105), wherein the seat (3; 103) and the wheels (4, 5, 6, 7; 104, 105, 106, 107) are fastened to the frame (2; 102), the drive device (15; 115) being mechanically coupled with the seat element and/or with the backrest element in such a way that the seat element and/or the backrest element is displaceable with respect to the frame (2; 102) by means of the drive device (15; 115) to render possible moving a backside of the person sitting on the seat, wherein the seat element is supported on the frame (2; 102) by a seat suspension device in such a way that it is deflectable sideways around a seat element centre position by means of the drive device (15; 115) and/or in such a way that it is rotatable by means of the drive device (15; 115) around a vertical axis and/or around a horizontal axis, which is arranged aligned with a seat direction of the seat (3; 103), characterized in that the seat element and/or the backrest element are/is operatively connected to the drive device (15, 115) while avoiding a generating of drive forces acting on the wheels (4, 5, 6, 7; 104, 105, 106, 107), wherein the seat element and/or the backrest element present/presents neither an exclusive nor an additional drive element for driving the wheels (4, 5; 104, 105).
An apparatus for accessing memory based on message packets, comprising: a CPU, configured to convert a memory access instruction into a message-based memory access request on a message-based bus; a message-based memory controller, configured to: receive the message-based memory access request transmitted from the message-based bus; package a plurality of the message-based memory access requests into a request message packet after receiving the plurality of the message-based memory access requests and send the request message packet to a storage module; the storage module, comprising a buffer scheduler configured to: receive the request message packet from the message-based memory controller; unpack the request message packet to get the plurality of message-based memory access requests; and schedule the execution sequence of the plurality of message-based memory access requests to access a memory chip of the storage module. a CPU, configured to convert a memory access instruction into a message-based memory access request on a message-based bus; a message-based memory controller, configured to: receive the message-based memory access request transmitted from the message-based bus; package a plurality of the message-based memory access requests into a request message packet after receiving the plurality of the message-based memory access requests and send the request message packet to a storage module; receive the message-based memory access request transmitted from the message-based bus; package a plurality of the message-based memory access requests into a request message packet after receiving the plurality of the message-based memory access requests and send the request message packet to a storage module; the storage module, comprising a buffer scheduler configured to: receive the request message packet from the message-based memory controller; unpack the request message packet to get the plurality of message-based memory access requests; and schedule the execution sequence of the plurality of message-based memory access requests to access a memory chip of the storage module. receive the request message packet from the message-based memory controller; unpack the request message packet to get the plurality of message-based memory access requests; and schedule the execution sequence of the plurality of message-based memory access requests to access a memory chip of the storage module.
A motion compensated magnetic resonance imaging method comprising: receiving motion indication signals from a plurality of markers (40, 140), wherein the markers include a resonatable material and an LC circuit (46, 48) disposed adjacent to the resonatable material, wherein the marker includes a controller configured to tune and detune the LC circuit (46, 48); scanning the patient using MRI scan parameters to generate MRI resonance data; generating the motion indicating signals such that at least one of a frequency and a phase of the motion indicating signals is indicative of the relative position of the markers during the patient scanning; reconstructing the MRI resonance data into an image using the MRI scan parameters; determining a relative position of at least a volume of interest of the patient (38, 138) from the motion indicating signals; modifying the scanning parameters to compensate for the determined relative motion of the patient; detuning the LC circuit during image data collection; and tuning the LC circuit during relative position data collection. receiving motion indication signals from a plurality of markers (40, 140), wherein the markers include a resonatable material and an LC circuit (46, 48) disposed adjacent to the resonatable material, wherein the marker includes a controller configured to tune and detune the LC circuit (46, 48); scanning the patient using MRI scan parameters to generate MRI resonance data; generating the motion indicating signals such that at least one of a frequency and a phase of the motion indicating signals is indicative of the relative position of the markers during the patient scanning; reconstructing the MRI resonance data into an image using the MRI scan parameters; determining a relative position of at least a volume of interest of the patient (38, 138) from the motion indicating signals; modifying the scanning parameters to compensate for the determined relative motion of the patient; detuning the LC circuit during image data collection; and tuning the LC circuit during relative position data collection.
A method by a master network node for measurement gap configuration in a wireless device, the method comprising: establishing a connection with a wireless device operating in dual connectivity with the master network node and a secondary network node, the master network node operating on a New Radio, NR, wireless network and the secondary network node operating on a Long-Term Evolution, LTE, network, wherein the measurement gap configuration is to be configured on a per frequency basis for at least a first frequency and a second frequency on the NR wireless network, and wherein the measurement gap configuration is to be configured on a per frequency basis for the first frequency on the LTE network; configuring, by the master network node, the wireless device with at least one measurement gap for the second frequency when the master network node configures a measurement that requires the at least one measurement gap for the second frequency; configuring, by the master network node, the wireless device with at least one measurement gap for the first frequency when the master network node is first to configure a measurement that requires the at least one measurement gap for the first frequency before the secondary network node; and receiving, from the secondary network node, a configuration of the at least one measurement gap for the first frequency when the secondary network node is first to configure the measurement that requires the at least one measurement gap for the first frequency before the master network node. establishing a connection with a wireless device operating in dual connectivity with the master network node and a secondary network node, the master network node operating on a New Radio, NR, wireless network and the secondary network node operating on a Long-Term Evolution, LTE, network, wherein the measurement gap configuration is to be configured on a per frequency basis for at least a first frequency and a second frequency on the NR wireless network, and wherein the measurement gap configuration is to be configured on a per frequency basis for the first frequency on the LTE network; configuring, by the master network node, the wireless device with at least one measurement gap for the second frequency when the master network node configures a measurement that requires the at least one measurement gap for the second frequency; configuring, by the master network node, the wireless device with at least one measurement gap for the first frequency when the master network node is first to configure a measurement that requires the at least one measurement gap for the first frequency before the secondary network node; and receiving, from the secondary network node, a configuration of the at least one measurement gap for the first frequency when the secondary network node is first to configure the measurement that requires the at least one measurement gap for the first frequency before the master network node.
A method for detecting mechanical faults in a generator, the method comprising: acquiring electrical signals representative of an operating condition of the generator; normalizing the electrical signals to extract spectral information by: eliminating symmetrical components from a current spectrum by squaring an instantaneous value of a current signal of each of a multiple phases and summing the squared values; and extracting asymmetrical components that appear in the current spectrum during abnormal operating conditions; and detecting a fault based on analyzing the spectral information. acquiring electrical signals representative of an operating condition of the generator; normalizing the electrical signals to extract spectral information by: eliminating symmetrical components from a current spectrum by squaring an instantaneous value of a current signal of each of a multiple phases and summing the squared values; and extracting asymmetrical components that appear in the current spectrum during abnormal operating conditions; and detecting a fault based on analyzing the spectral information. eliminating symmetrical components from a current spectrum by squaring an instantaneous value of a current signal of each of a multiple phases and summing the squared values; and extracting asymmetrical components that appear in the current spectrum during abnormal operating conditions; and detecting a fault based on analyzing the spectral information.
A network device, comprising: a processor and a memory communicatively connected to the processor, the processor configured to: receive wavelength path latency information for a set of available wavelength paths supported by the network device, wherein the wavelength path latency information comprises, for each of the available wavelength paths, respective bounded latency path information for the respective available wavelength path and respective lowest latency path information for the respective available wavelength path, wherein, the bounded latency path information indicates a longest latency path information; and perform a management action for a service at the network device based on the wavelength path latency information. receive wavelength path latency information for a set of available wavelength paths supported by the network device, wherein the wavelength path latency information comprises, for each of the available wavelength paths, respective bounded latency path information for the respective available wavelength path and respective lowest latency path information for the respective available wavelength path, wherein, the bounded latency path information indicates a longest latency path information; and perform a management action for a service at the network device based on the wavelength path latency information.
A tanning wastewater treatment and reuse apparatus comprising: a coarse filter; a regulation pool; a hydraulic sieve; a desulfurization pool; a first nanocatalytic electrolyzer; a flocculation pool; a first settling pool; a flotation device; a biochemical pool; a second settling pool; a second nanocatalytic electrolyzer; a fine filter; and a compressor; wherein the coarse filter has an inlet and an outlet connected to an inlet of the regulation pool, an inlet of the hydraulic sieve is connected to an outlet of the regulation pool, an inlet of the desulfurization pool is connected to an outlet of the hydraulic sieve, a precipitate outlet of the desulfurization pool is connected to the compressor, an inlet of the first nanocatalytic electrolyzer is connected to a wastewater outlet of the desulfurization pool, an outlet of the first nanocatalytic electrolyzer is connected to an inlet of the flocculation pool, an outlet of the flocculation pool is connected to an inlet of the first settling pool, a precipitate outlet of the first settling pool is connected to the compressor, a wastewater outlet of the first settling pool is connected to an inlet of the flotation device, an impurities outlet of the flotation device is connected to the compressor, a wastewater outlet of the flotation device is connected to an inlet of the biochemical pool, an outlet of the biochemical pool is connected to an inlet of the second settling pool, a wastewater outlet of the second settling pool is connected to an inlet of the second nanocatalytic electrolyzer, a precipitate outlet of the second settling pool is connected to the compressor, a wastewater outlet of the second nanocatalytic electrolyzer is connected to an inlet of the fine filter, water for reuse flows out of an outlet of the fine filter, and impurities in the compressor are for discharge. a coarse filter; a regulation pool; a hydraulic sieve; a desulfurization pool; a first nanocatalytic electrolyzer; a flocculation pool; a first settling pool; a flotation device; a biochemical pool; a second settling pool; a second nanocatalytic electrolyzer; a fine filter; and a compressor;
A metal sheet having a low friction coefficient and a low waviness, wherein multiple round or roughly-round small pits are distributed on the surface of the metal sheet, the diameter of a single pit ranges from 80 μm to 100 μm, the overlap between adjacent pits is lower than 10%; and wherein on the surface of the metal sheet where the pits are located, the proportion of the surface area occupied by the pits per square millimeter ranges from 60% to 71%, the difference in the number of pits in any unit square millimeter is less than 20%, and a number of pits is from 90 to 130 per square millimeter.
Sports clothing, protective clothing, clothing for body shaping and clothing with a medical function, characterized in that the clothing comprises at least one fabric comprising elastic fibers, which elastic fibers are produced from a polymer composition comprising a copolymer containing 20 - 80 wt.% of monomeric units of a dimerised fatty acid or a derivative thereof and further monomer units of at least one dicarboxylic acid and at least one diol.
A spirally ascending/descending cryogenic storage apparatus, comprising a cryogenic storage tank, a temperature in the cryogenic storage tank being continuously maintained in a certain deep cryogenic range; the cryogenic storage tank being provided with a drive assembly and a rotating storage rack therein, the rotating storage rack being capable of storing a plurality of shelf boxes in a circumferential direction; the cryogenic storage tank being provided with an access opening, the plurality of shelf boxes being capable of moving to a position corresponding to the access opening along with a movement of the rotating storage rack; the cryogenic storage tank being a liquid nitrogen tank, and liquid nitrogen being provided at a bottom in the liquid nitrogen tank, characterized in that the drive assembly is capable of driving the rotating storage rack to spirally ascend or spirally descend in the cryogenic storage tank. a temperature in the cryogenic storage tank being continuously maintained in a certain deep cryogenic range; the cryogenic storage tank being provided with a drive assembly and a rotating storage rack therein, the rotating storage rack being capable of storing a plurality of shelf boxes in a circumferential direction; the cryogenic storage tank being provided with an access opening, the plurality of shelf boxes being capable of moving to a position corresponding to the access opening along with a movement of the rotating storage rack; the cryogenic storage tank being a liquid nitrogen tank, and liquid nitrogen being provided at a bottom in the liquid nitrogen tank, characterized in that the drive assembly is capable of driving the rotating storage rack to spirally ascend or spirally descend in the cryogenic storage tank.
A suction nozzle for a vacuum cleaner or the like, comprising a base plate with a base plate channel open towards a surface to be vacuumed, wherein said base plate channel comprises a first edge (31; 32), a second edge (32; 31), a first channel wall, a second channel wall and a channel bottom substantially opposite an opening formed between said first edge (31; 32) and said second edge (32; 31), wherein said first channel wall comprises a first main wall (311; 321) and said second channel wall comprises a second main wall (321; 311); wherein said first and second main walls (311; 321) are inclined so as to converge towards the bottom and wherein said first channel wall (311; 321) also comprises a first edge wall (312; 322) inclined so as to diverge from the second main wall (321; 311) towards the bottom so that an angle greater than 90° and less than 180° is formed between said first edge wall (312; 322) and said first main wall (311; 321).
An item singulation method, the method comprising: transitioning, using a first robotic unit (202, 302, 402), a plurality of items from a tote to a singulation table (205, 305, 405, 505), wherein: at least two items of the plurality of items have a different size and a different shape; at least two items of the plurality of items are at least partially shingled when transitioned onto the singulation table; activating the singulation table (205, 305, 405, 505) to cause a vibration of the singulation table (205, 305, 405, 505) to at least: cause the at least two items to de-shingle; cause the plurality of items to at least partially separate in distance with respect to other items of the plurality of items; cause the plurality of items to migrate along the singulation table (205, 305, 405, 505); and cause a first item to transition to a pick conveyor (214, 314, 514); activating the pick conveyor (214, 314, 514) to transport the first item to a pick area (215, 315, 515); with the first item transitioned to the pick conveyor, halting the vibration of the singulation table for a period of time while the pick conveyor transports the first item away from the singulation table; and picking, with a second robotic unit (204, 304, 504), the first item from the pick area (215, 315, 515). transitioning, using a first robotic unit (202, 302, 402), a plurality of items from a tote to a singulation table (205, 305, 405, 505), wherein: at least two items of the plurality of items have a different size and a different shape; at least two items of the plurality of items are at least partially shingled when transitioned onto the singulation table; at least two items of the plurality of items have a different size and a different shape; at least two items of the plurality of items are at least partially shingled when transitioned onto the singulation table; activating the singulation table (205, 305, 405, 505) to cause a vibration of the singulation table (205, 305, 405, 505) to at least: cause the at least two items to de-shingle; cause the plurality of items to at least partially separate in distance with respect to other items of the plurality of items; cause the plurality of items to migrate along the singulation table (205, 305, 405, 505); and cause a first item to transition to a pick conveyor (214, 314, 514); cause the at least two items to de-shingle; cause the plurality of items to at least partially separate in distance with respect to other items of the plurality of items; cause the plurality of items to migrate along the singulation table (205, 305, 405, 505); and cause a first item to transition to a pick conveyor (214, 314, 514); activating the pick conveyor (214, 314, 514) to transport the first item to a pick area (215, 315, 515); with the first item transitioned to the pick conveyor, halting the vibration of the singulation table for a period of time while the pick conveyor transports the first item away from the singulation table; and picking, with a second robotic unit (204, 304, 504), the first item from the pick area (215, 315, 515).