mhurhangee/ep-ind-claims huggingface dataset:
A method used in a first control node controlling one or more first links among two or more first radio nodes in a first network, wherein the one or more first links are directional links and the two or more first radio nodes utilize beam forming for directional communication, the method comprising: transmitting a first set of sounding and sensing related parameters of the first control node pertaining to the one or more first links to a second control node controlling one or more second links among two or more second radio nodes in a second network neighboring the first network and operating at the same frequency as the first network, wherein the one or more second links are directional links and the two or more second radio nodes utilize beam forming for directional communication; receiving, from the second control node, a second set of sounding and sensing related parameters pertaining to the one or more second links, wherein the second set of sounding and sensing related parameters are adjusted based on the first set of sounding and sensing related parameters transmitted from the first control node; adjusting the first set of sounding and sensing related parameters of the first control node, based on the second set of sounding and sensing related parameters; and applying the adjusted first set of sounding and sensing related parameters to the one or more first links to determine interference within the first network from the two or more first radio nodes and interference from the two or more second radio nodes of the second network. transmitting a first set of sounding and sensing related parameters of the first control node pertaining to the one or more first links to a second control node controlling one or more second links among two or more second radio nodes in a second network neighboring the first network and operating at the same frequency as the first network, wherein the one or more second links are directional links and the two or more second radio nodes utilize beam forming for directional communication; receiving, from the second control node, a second set of sounding and sensing related parameters pertaining to the one or more second links, wherein the second set of sounding and sensing related parameters are adjusted based on the first set of sounding and sensing related parameters transmitted from the first control node; adjusting the first set of sounding and sensing related parameters of the first control node, based on the second set of sounding and sensing related parameters; and applying the adjusted first set of sounding and sensing related parameters to the one or more first links to determine interference within the first network from the two or more first radio nodes and interference from the two or more second radio nodes of the second network.
A stable pharmaceutical composition comprising: Linezolid Form III having an x-ray powder diffraction spectrum having peaks at about 7.6, 9.6, 13.6, 14.9, 18.2, 18.9, 21.2, 22.3, 25.6, 26.9, 27.9, and 29.9, expressed as degrees 2θ, Soy polysaccharides as a disintegrant; and at least one pharmaceutically acceptable excipient. Linezolid Form III having an x-ray powder diffraction spectrum having peaks at about 7.6, 9.6, 13.6, 14.9, 18.2, 18.9, 21.2, 22.3, 25.6, 26.9, 27.9, and 29.9, expressed as degrees 2θ, Soy polysaccharides as a disintegrant; and at least one pharmaceutically acceptable excipient.
A positive electrode current collector, comprising: a metal conductive layer; an overcharge blocking activation layer disposed on a surface of the metal conductive layer, the overcharge blocking activation layer comprising an overcharge blocking activation material, a binder material and a conductive material, wherein the overcharge blocking activation material comprises an esterified saccharide, in the overcharge blocking activation layer, mass percentage of the overcharge blocking activation material is from 25% to 45%, mass percentage of the binder material is from 35% to 60%, and mass percentage of the conductive material is from 6% to 20%; and when the overcharge blocking activation layer is disposed on one single surface of the metal conductive layer, the overcharge blocking activation layer has a thickness of from 0.3 μm to 10 μm; or when the overcharge blocking activation layer is disposed on both of two opposite surfaces of the metal conductive layer, total thickness of the overcharge blocking activation layer on both surfaces of the metal conductive layer is from 0.5 μm to 18 μm, and the overcharge blocking activation layer has a thickness on each surface of greater than or equal to 0.25 μm. a metal conductive layer; an overcharge blocking activation layer disposed on a surface of the metal conductive layer, the overcharge blocking activation layer comprising an overcharge blocking activation material, a binder material and a conductive material, wherein the overcharge blocking activation material comprises an esterified saccharide, in the overcharge blocking activation layer, mass percentage of the overcharge blocking activation material is from 25% to 45%, mass percentage of the binder material is from 35% to 60%, and mass percentage of the conductive material is from 6% to 20%; and when the overcharge blocking activation layer is disposed on one single surface of the metal conductive layer, the overcharge blocking activation layer has a thickness of from 0.3 μm to 10 μm; or when the overcharge blocking activation layer is disposed on both of two opposite surfaces of the metal conductive layer, total thickness of the overcharge blocking activation layer on both surfaces of the metal conductive layer is from 0.5 μm to 18 μm, and the overcharge blocking activation layer has a thickness on each surface of greater than or equal to 0.25 μm.
A collision risk calculation program configured to cause a processor to perform processing, the processing comprising: executing acquisition processing that includes acquiring travel information regarding a position and velocity of each of a first vessel and a second vessel; creating an estimated future route of the first vessel and an estimated future route of the second vessel; executing region calculation processing that includes calculating a region having a possibility of future collision between the first vessel and the second vessel from the travel information of each of the first vessel and the second vessel; and executing first risk calculation processing that includes estimating a minimum turning radius required for the first vessel or the second vessel as a maneuvering amount to be used by the first vessel or the second vessel in order to avoid the region, the minimum turning radius being a radius of a circle that comes in contact with both the route of the first vessel or the route of the second vessel and the region, and calculating a first risk value based on the estimated maneuvering amount, wherein the first risk value is a value obtained by dividing the minimum turning radius at the time of maneuver of the respective first vessel or second vessel using the maneuvering amount in order to avoid the region by a turning radius of the corresponding first vessel or second vessel that performs the maneuver. executing acquisition processing that includes acquiring travel information regarding a position and velocity of each of a first vessel and a second vessel; creating an estimated future route of the first vessel and an estimated future route of the second vessel; executing region calculation processing that includes calculating a region having a possibility of future collision between the first vessel and the second vessel from the travel information of each of the first vessel and the second vessel; and executing first risk calculation processing that includes estimating a minimum turning radius required for the first vessel or the second vessel as a maneuvering amount to be used by the first vessel or the second vessel in order to avoid the region, the minimum turning radius being a radius of a circle that comes in contact with both the route of the first vessel or the route of the second vessel and the region, and calculating a first risk value based on the estimated maneuvering amount, wherein the first risk value is a value obtained by dividing the minimum turning radius at the time of maneuver of the respective first vessel or second vessel using the maneuvering amount in order to avoid the region by a turning radius of the corresponding first vessel or second vessel that performs the maneuver.
A method for manufacturing a catheter comprising a hydrophilic gel, said method comprising the steps of: a. combining a polymeric photoinitiator of the general formula I: R 1 (A 1) r -(R 2 (A 2) m -O) o -(R 3 (A 3) n -O) p -R 4 (A 4) s wherein R 2 is -CH 2 CH 2 -, in which one or more H atoms may be replaced by A 2; and R 3 is -CH 2 CH 2 -, in which one or more H atoms may be replaced by A 3; R 1 is OH and R 4 is H; o and p are each a real number from 0-5000 provided that o + p > 0, and the ratio o:p is at least 1:1000; m=1 and n=0; r and s are each from 0-4; and A 1, A 2, A 3 and A 4 are identical or different non-cleavable photoinitiator moieties linked to R 1, R 2, R 3, and R 4, respectively, via a spacer group selected from alkylene ethers; with one or more gel-forming polymers and/or gel-forming monomers to form a matrix composition, b. curing the matrix composition obtained in step a. by exposing it to UV radiation, c. exposing the matrix composition to a swelling medium, d. incorporating the hydrophilic gel/matrix composition into a catheter, wherein steps b. and c. may take place in any order, provided that, if step d. is carried out first, step b. takes place before step c. a. combining a polymeric photoinitiator of the general formula I: R 1 (A 1) r -(R 2 (A 2) m -O) o -(R 3 (A 3) n -O) p -R 4 (A 4) s wherein R 2 is -CH 2 CH 2 -, in which one or more H atoms may be replaced by A 2; and R 3 is -CH 2 CH 2 -, in which one or more H atoms may be replaced by A 3; R 1 is OH and R 4 is H; o and p are each a real number from 0-5000 provided that o + p > 0, and the ratio o:p is at least 1:1000; m=1 and n=0; r and s are each from 0-4; and A 1, A 2, A 3 and A 4 are identical or different non-cleavable photoinitiator moieties linked to R 1, R 2, R 3, and R 4, respectively, via a spacer group selected from alkylene ethers; with one or more gel-forming polymers and/or gel-forming monomers to form a matrix composition, wherein R 2 is -CH 2 CH 2 -, in which one or more H atoms may be replaced by A 2; and R 3 is -CH 2 CH 2 -, in which one or more H atoms may be replaced by A 3; R 1 is OH and R 4 is H; o and p are each a real number from 0-5000 provided that o + p > 0, and the ratio o:p is at least 1:1000; m=1 and n=0; r and s are each from 0-4; and A 1, A 2, A 3 and A 4 are identical or different non-cleavable photoinitiator moieties linked to R 1, R 2, R 3, and R 4, respectively, via a spacer group selected from alkylene ethers; b. curing the matrix composition obtained in step a. by exposing it to UV radiation, c. exposing the matrix composition to a swelling medium, d. incorporating the hydrophilic gel/matrix composition into a catheter,
An autosampler for a liquid chromatograph, comprising: a housing having a rack insertion opening for putting in and taking out a sample rack on one side surface; a temperature control space, provided inside the housing, in which the sample rack inserted through the rack insertion opening is accommodated, and for performing temperature control of a sample mounted on the sample rack; and an air temperature control part comprising an air intake portion for intake of air from the temperature control space, a fan for blowing air taken in from the air intake portion toward the sample rack accommodated in the temperature control space, and a cooling element provided on a path of air taken in from the air intake portion to cool the air, wherein the air temperature control part is configured to reduce an amount of air flowing near the rack insertion opening while the sample rack is pulled out from the temperature control space as compared to while the sample rack is accommodated in the temperature control space so as to suppress inflow of air through the rack insertion opening, characterized in that the air temperature control part includes a rising guide that functions to raise air blown by the fan to a position higher than the rack insertion opening only while the sample rack is pulled out from the temperature control space. a housing having a rack insertion opening for putting in and taking out a sample rack on one side surface; a temperature control space, provided inside the housing, in which the sample rack inserted through the rack insertion opening is accommodated, and for performing temperature control of a sample mounted on the sample rack; and an air temperature control part comprising an air intake portion for intake of air from the temperature control space, a fan for blowing air taken in from the air intake portion toward the sample rack accommodated in the temperature control space, and a cooling element provided on a path of air taken in from the air intake portion to cool the air, wherein the air temperature control part is configured to reduce an amount of air flowing near the rack insertion opening while the sample rack is pulled out from the temperature control space as compared to while the sample rack is accommodated in the temperature control space so as to suppress inflow of air through the rack insertion opening, characterized in that the air temperature control part includes a rising guide that functions to raise air blown by the fan to a position higher than the rack insertion opening only while the sample rack is pulled out from the temperature control space.
UPnP control device (ADMC) of a network, comprising - means for receiving, from a content server, a first identifier of a multimedia content to be rendered, - means for sending, to a transcoding server, a command identifying the multimedia content by way of the first identifier, - means for obtaining a second identifier from the transcoding server, the means for obtaining the second identifier furthermore being designed to receive the second identifier following the sending of the first identifier to the transcoding server by the means for sending said command, the second identifier being associated with a transcoded multimedia content to be generated by transcoding of the multimedia content by the transcoding server, - means for controlling rendering of said transcoded multimedia content by a rendering device, the control means using the obtained second identifier instead of the first identifier by transmitting the second identifier to the rendering device. - means for receiving, from a content server, a first identifier of a multimedia content to be rendered, - means for sending, to a transcoding server, a command identifying the multimedia content by way of the first identifier, - means for obtaining a second identifier from the transcoding server, the means for obtaining the second identifier furthermore being designed to receive the second identifier following the sending of the first identifier to the transcoding server by the means for sending said command, the second identifier being associated with a transcoded multimedia content to be generated by transcoding of the multimedia content by the transcoding server, - means for controlling rendering of said transcoded multimedia content by a rendering device, the control means using the obtained second identifier instead of the first identifier by transmitting the second identifier to the rendering device.
Non-destructive method for analysing maternal DNA of a seed, comprising the steps of a) contacting a seed with an aqueous solution, b) agitating the seed in contact with the aqueous solution to dislodge DNA from the seed coat surface, and c) analysing the DNA thus dislodged from the seed coat surface, wherein the seed is not crushed or damaged, such that it retains its capacity to germinate and generate a plant. a) contacting a seed with an aqueous solution, b) agitating the seed in contact with the aqueous solution to dislodge DNA from the seed coat surface, and c) analysing the DNA thus dislodged from the seed coat surface,
Component comprising a substrate which includes a plastic material containing metal particles, wherein the substrate is at least partially coated with at least one compound selected from zeolite, the zeolite-like materials aluminum phosphate, silicon-aluminum-phosphate and aluminum silicate and/or a metal-organic framework.
Method for determining at least one current setpoint I a * I b * I c * at input of a rectifier with reactive power compensation from at least one voltage measurement ( U ab,U bc,U ca) at input of the rectifier and at least one instantaneous active power setpoint ( P req), comprising a first step of calculating said at least one current setpoint I a * I b * I c *; a second step of adaptive filtering of said at least one current setpoint, and a third step of limiting the degree of variation of said at least one current setpoint I a * I b * I c *, the first calculating step comprising a calculation of at least one non-filtered current setpoint I a req I b req I c req, according to the formula: I a req I b req I c req = P req U ab 2 + U bc 2 + U ca 2 U ab − U ca U bc − U ab U ca − U bc where P req is the instantaneous active power setpoint provided by a unit for controlling the charging of the drive battery; I a req I b req I c req are the non-filtered current setpoints, and ( U ab,U bc,U ca) are the differential voltage measurements between phases measured at input of the rectifier. P req is the instantaneous active power setpoint provided by a unit for controlling the charging of the drive battery; I a req I b req I c req are the non-filtered current setpoints, and ( U ab,U bc,U ca) are the differential voltage measurements between phases measured at input of the rectifier.
A method of forming a battery electrode, comprising: forming a precursor solution including a lithium sulfide precursor and a carbon precursor; converting the precursor solution into an aerosol; removing water from the aerosol to form precursor particles; reacting the precursor particles at a first reaction temperature to form lithium carbonate; and reacting the lithium carbonate with hydrogen sulfide to form a lithium-sulfide-carbon composite. forming a precursor solution including a lithium sulfide precursor and a carbon precursor; converting the precursor solution into an aerosol; removing water from the aerosol to form precursor particles; reacting the precursor particles at a first reaction temperature to form lithium carbonate; and reacting the lithium carbonate with hydrogen sulfide to form a lithium-sulfide-carbon composite.
A laundry appliance comprising: a wash tub disposed within a cabinet; a rotating drum disposed within the wash tub; a drain system that directs a fluid from the wash tub to a fluid pump, comprising a tub drain that directs fluid from the wash tub to said fluid pump; and a trap disposed within said tub drain, wherein the trap includes a body having a plurality of fingers that extend across an aperture defined within the body, the plurality of fingers configured to permit passage of particulate material and prevent passage of foreign objects through the body, characterised in that the body is an elongated body having an elongated aperture, wherein the plurality of fingers includes opposing sets of fingers that each extend across the centerline of the elongated aperture. a wash tub disposed within a cabinet; a rotating drum disposed within the wash tub; a drain system that directs a fluid from the wash tub to a fluid pump, comprising a tub drain that directs fluid from the wash tub to said fluid pump; and a trap disposed within said tub drain, wherein the trap includes a body having a plurality of fingers that extend across an aperture defined within the body, the plurality of fingers configured to permit passage of particulate material and prevent passage of foreign objects through the body, characterised in that the body is an elongated body having an elongated aperture, wherein the plurality of fingers includes opposing sets of fingers that each extend across the centerline of the elongated aperture.
A compound of Formula Ia, or a pharmaceutically acceptable salt thereof, for use in a method of treating a human suffering from a viral infection, the method comprising administering to the human a therapeutically effective amount of the compound of Formula Ia, or a pharmaceutically acceptable salt thereof: wherein the human is not administered chloroquine, or an analog or salt thereof, during treatment of the viral infection; wherein the human has not been administered chloroquine, or an analog or salt thereof, within 10 days of receiving the first dose of the compound of Formula Ia, or pharmaceutically acceptable salt thereof; and wherein chloroquine, or an analog or salt thereof, is chloroquine, desethylchloroquine, hydroxychloroquine, desethylhydroxychloroquine, bisdesethylhydroxychloroquine, or a pharmaceutically acceptable salt of any of the foregoing. wherein the human is not administered chloroquine, or an analog or salt thereof, during treatment of the viral infection; wherein the human has not been administered chloroquine, or an analog or salt thereof, within 10 days of receiving the first dose of the compound of Formula Ia, or pharmaceutically acceptable salt thereof; and wherein chloroquine, or an analog or salt thereof, is chloroquine, desethylchloroquine, hydroxychloroquine, desethylhydroxychloroquine, bisdesethylhydroxychloroquine, or a pharmaceutically acceptable salt of any of the foregoing.