mhurhangee/ep-ind-claims huggingface dataset:
A record player for playing an acoustical record, said record player comprising: a base; a platter rotatably mounted on said base and configured to support the acoustical record thereon; a tonearm assembly pivotally mounted on said base and configured to read the acoustical record for producing sound stored by the acoustical record; and a monitoring unit secured on said base, and including a light emitter configured to emit light toward said platter, said record player being characterised by further comprising: an image capturing module configured to receive the light reflected by said platter and to capture images of said platter, and a processing module configuredto receive the images of said platter from said image capturing module, and to determine a current rotating speed of said platter by analyzing and comparing the images captured by said image capturing module at successive time points. a base; a platter rotatably mounted on said base and configured to support the acoustical record thereon; a tonearm assembly pivotally mounted on said base and configured to read the acoustical record for producing sound stored by the acoustical record; and a monitoring unit secured on said base, and including a light emitter configured to emit light toward said platter, said record player being characterised by further comprising: an image capturing module configured to receive the light reflected by said platter and to capture images of said platter, and a processing module configuredto receive the images of said platter from said image capturing module, and to determine a current rotating speed of said platter by analyzing and comparing the images captured by said image capturing module at successive time points. an image capturing module configured to receive the light reflected by said platter and to capture images of said platter, and a processing module configuredto receive the images of said platter from said image capturing module, and to determine a current rotating speed of said platter by analyzing and comparing the images captured by said image capturing module at successive time points.
A method for spatially tagging target nucleic acids of a biological specimen, comprising: (a) providing a solid support comprising a population of nucleic acids randomly located across a population of features of said solid support, wherein the nucleic acids comprise a barcode sequence, and wherein the barcode sequence differs from barcode sequences of other nucleic acids in the population; (b) performing a sequencing reaction to determine the barcode sequences, or complements thereof, of the nucleic acids randomly located across the population of features on the solid support, thereby determining the position of the barcode sequences on the solid support; (c) contacting a biological specimen with the solid support that comprises the nucleic acids; (d) hybridizing a target nucleic acid from the biological specimen to a capture sequence on a nucleic acid that is proximal to the target nucleic acid; and (e) extending the nucleic acid to produce an extended probe that comprises the barcode sequence, or a complement thereof, and all or a portion of the target nucleic acid, or a complement thereof, thereby spatially tagging the target nucleic acid from the biological specimen. (a) providing a solid support comprising a population of nucleic acids randomly located across a population of features of said solid support, wherein the nucleic acids comprise a barcode sequence, and wherein the barcode sequence differs from barcode sequences of other nucleic acids in the population; (b) performing a sequencing reaction to determine the barcode sequences, or complements thereof, of the nucleic acids randomly located across the population of features on the solid support, thereby determining the position of the barcode sequences on the solid support; (c) contacting a biological specimen with the solid support that comprises the nucleic acids; (d) hybridizing a target nucleic acid from the biological specimen to a capture sequence on a nucleic acid that is proximal to the target nucleic acid; and (e) extending the nucleic acid to produce an extended probe that comprises the barcode sequence, or a complement thereof, and all or a portion of the target nucleic acid, or a complement thereof, thereby spatially tagging the target nucleic acid from the biological specimen.
A process to clean melt processing equipment used to compound, mold or extrude polycarbonate-containing resins, comprising: purging the melt processing equipment with a cleaning mixture (purge) comprising from 50 to 99.5 wt% of polycarbonate resin pellets and from 0.5 to 50 wt% of an aqueous solution containing an alkyl aryl sulfonate salt, wherein the alkyl aryl sulfonate salt is present in the solution in an amount of 0.2 to 50 wt% of the solution, the solution having a pH of 6.0 to 7.9; heating the melt processing equipment to a temperature of 250 to 380°C; and running the equipment to obtain a purged resin while cleaning the melt processing equipment. purging the melt processing equipment with a cleaning mixture (purge) comprising from 50 to 99.5 wt% of polycarbonate resin pellets and from 0.5 to 50 wt% of an aqueous solution containing an alkyl aryl sulfonate salt, wherein the alkyl aryl sulfonate salt is present in the solution in an amount of 0.2 to 50 wt% of the solution, the solution having a pH of 6.0 to 7.9; heating the melt processing equipment to a temperature of 250 to 380°C; and running the equipment to obtain a purged resin while cleaning the melt processing equipment.
A hot-dip galvanized steel sheet comprising: a base steel; and a hot-dip galvanizing layer disposed on a surface of the base steel, wherein the hot-dip galvanizing layer contains 0.1 to 0.8 weight percentage (wt %) of aluminum (Al), 0.05 to 1 wt % of manganese (Mn), with a remainder of zinc (Zn) and inevitable impurities, and optionally contains one or more elements selected from titanium (Ti), calcium (Ca), manganese (Mg), nickel (Ni), and antimony (Sb) in a manner that a total content of the one or more elements is 1 % or less (excluding zero), and a surface of the hot-dip galvanizing layer is provided with crystallites having a major axis length of 1 to 20 μm and comprising 2 to 11 atomic percentage (at %) of Al, 0.6 to 6 at % of Mn, 0 to 2 at % of iron (Fe), and a remainder of Zn, wherein an atomic percentage ratio of Mn and Al (Mn/Al) contained in the crystallites ranges from 0.2 to 0.6. a base steel; and a hot-dip galvanizing layer disposed on a surface of the base steel, wherein the hot-dip galvanizing layer contains 0.1 to 0.8 weight percentage (wt %) of aluminum (Al), 0.05 to 1 wt % of manganese (Mn), with a remainder of zinc (Zn) and inevitable impurities, and optionally contains one or more elements selected from titanium (Ti), calcium (Ca), manganese (Mg), nickel (Ni), and antimony (Sb) in a manner that a total content of the one or more elements is 1 % or less (excluding zero), and a surface of the hot-dip galvanizing layer is provided with crystallites having a major axis length of 1 to 20 μm and comprising 2 to 11 atomic percentage (at %) of Al, 0.6 to 6 at % of Mn, 0 to 2 at % of iron (Fe), and a remainder of Zn, wherein an atomic percentage ratio of Mn and Al (Mn/Al) contained in the crystallites ranges from 0.2 to 0.6.
A body induction touch control faucet device, comprising a faucet body, provided with an outlet, a cold water inlet pipe, a hot water inlet pipe and a switch unit; wherein, said cold water inlet pipe and said hot water inlet pipe are in connection with said faucet body through a mixing valve, and said cold water inlet pipe and said hot water inlet pipe are in connection with an inlet of said mixing valve through water inlet electromagnetic valves (430, 440) thereof respectively, and said faucet body is in connection with an outlet of said mixing valve, said faucet device further comprises a sensing zone for switch control and a sensing zone for water temperature switching, arranged on said faucet body, adapted for being touched; and said switch unit comprises a touch sensing module, which is in connection with said sensing zone for switch control and said sensing zone for water temperature switching respectively, for detecting a touch signal from said sensing zone for switch control and said sensing zone for water temperature switching, and for outputting an induction signal corresponding to a touch behaviour after processing said touch signal; a control module, in connection with said touch sensing module, adapted to receive said induction signal outputted by said touch sensing module, and to activate said cold water inlet electromagnetic valve and said hot water inlet electromagnetic valve; and a power module, for supplying power for said touch sensing module and said control module; characterized in that, said faucet body is made of metal and is mounted on a faucet base, which comprises a left hollow tube, a right hollow tube and a water outlet tube; said left hollow tube is said sensing zone for water temperature switching, and said right hollow tube is said sensing zone for switch control; a lower end of said left hollow tube and a lower end of said right hollow tube are connected with each other through an insulating member, and are further connected with an outlet of said mixing valve through a connecting pipe; an upper end of said left hollow tube and an upper end of said right hollow tube are in connection with said water outlet tube through an insulating member (130, 140) respectively, and said outlet of the faucet body is provided on said water outlet tube.
A cellulose acetate having a total degree of acetyl substitution of 0.4 to 1.1 for use in the prophylaxis and/or treatment of cancer, non-alcoholic steatohepatitis, obesity and/or diabetes, or hypercholesterolemia in a subject.
A non-transitory computer readable medium comprising instructions which, when executed by one or more hardware processors, causes performance of operations comprising: configuring, by a first controller, a first access point within a Wireless Local Area Network, WLAN; responsive to a client device associating with the first access point, identifying, by the first access point, a second controller that is a primary controller for the client device, wherein a primary controller is a controller that is to maintain information corresponding to the client device and direct network traffic to and from the client device, wherein the second controller is different than the first controller that configures the first access point; obtaining, by the first access point from the second controller, information corresponding to the client device; communicating, by the first access point with the client device, based on the information corresponding to the client device; and transmitting, by the first access point, network traffic received from the client device to the second controller, without transmitting the network traffic to the first controller. configuring, by a first controller, a first access point within a Wireless Local Area Network, WLAN; responsive to a client device associating with the first access point, identifying, by the first access point, a second controller that is a primary controller for the client device, wherein a primary controller is a controller that is to maintain information corresponding to the client device and direct network traffic to and from the client device, wherein the second controller is different than the first controller that configures the first access point; obtaining, by the first access point from the second controller, information corresponding to the client device; communicating, by the first access point with the client device, based on the information corresponding to the client device; and transmitting, by the first access point, network traffic received from the client device to the second controller, without transmitting the network traffic to the first controller.
Continuous or semi-continuous freeze coagulation process for an aqueous polymer dispersion, comprising a freezing step and a solid-liquid separation step, characterized in that the process comprises a further step of: - admixing water and/or water vapor between the freezing step and the solid-liquid separation step, wherein the solid-liquid separation step is defined by a separation factor P as per the formula P = m H 2 ⁢ O, mech m H 2 ⁢ O, tot where m H2O,mech represents the mechanically removed amount of water, i.e. the amount of aqueous phase removed, and m H2O,tot represents the total amount of water resulting from summing of the water i.e. the aqueous phase from the originally used aqueous polymer dispersion and the added water and/or water vapor, and wherein P is ≥ 0.55, preferably ≥ 0.8, more preferably ≥ 0.93, and even more preferably ≥ 0.95. - admixing water and/or water vapor between the freezing step and the solid-liquid separation step,
A resin glass plate comprising: a transparent resin substrate, and a hard coat layer formed on the transparent resin plate, wherein the hard coat layer is formed of a thermosetting material of a silicone polymer containing cellulose nanofibers of 0.4 to 4.0 pts. wt. based on 100 pts. wt. of silicone polymer, and wherein the hard coat layer has a surface formed into a modification layer having a film thickness of more than 0.2 μm and less than 0.6 μm, and said modification layer is composed mainly of silicon dioxide by selectively cutting and recombining Si-O-Si bonds. a transparent resin substrate, and a hard coat layer formed on the transparent resin plate, wherein the hard coat layer is formed of a thermosetting material of a silicone polymer containing cellulose nanofibers of 0.4 to 4.0 pts. wt. based on 100 pts. wt. of silicone polymer, and wherein the hard coat layer has a surface formed into a modification layer having a film thickness of more than 0.2 μm and less than 0.6 μm, and said modification layer is composed mainly of silicon dioxide by selectively cutting and recombining Si-O-Si bonds.
Double-stranded adapter DNA, which is used for unbiased gene amplification and has the following features: (a) the double-stranded adapter DNA has a sense strand and an antisense strand that are annealed with each other, the base length of the sense strand being equal to or longer than the base length of the antisense strand; (b) the base length of the sense strand is 15 to 40 bp; (c) the antisense strand includes a plurality of uracil bases such that each uracil can be removed by treating an adapter portion with uracil DNA glycosylase and the antisense strand can be completely degraded via heat treatment; (d) at least one end of the adapter DNA is in the form of a blunt end; (e) the blunt end of the adapter DNA binds to a target gene to be amplified; (f) a part or all of the sense strand corresponds to a forward primer sequence used for gene amplification; (g) a restriction enzyme site is not inserted to the adapter DNA; and (h) an amino group is bound to the 3' end of the antisense strand of the double-stranded adapter DNA. (a) the double-stranded adapter DNA has a sense strand and an antisense strand that are annealed with each other, the base length of the sense strand being equal to or longer than the base length of the antisense strand; (b) the base length of the sense strand is 15 to 40 bp; (c) the antisense strand includes a plurality of uracil bases such that each uracil can be removed by treating an adapter portion with uracil DNA glycosylase and the antisense strand can be completely degraded via heat treatment; (d) at least one end of the adapter DNA is in the form of a blunt end; (e) the blunt end of the adapter DNA binds to a target gene to be amplified; (f) a part or all of the sense strand corresponds to a forward primer sequence used for gene amplification; (g) a restriction enzyme site is not inserted to the adapter DNA; and (h) an amino group is bound to the 3' end of the antisense strand of the double-stranded adapter DNA.
A method for switching the striking stroke of a striking piston of a percussion device, actuated by a pressurized incompressible fluid, between a short striking stroke and a long striking stroke, and conversely, the striking piston being alternately movable inside a cylinder of a body of the percussion device and being arranged to strike a tool during each operating cycle, the percussion device comprising a control device arranged to vary the striking stroke of the striking piston between the short and long striking strokes, the switching method being characterized in that it comprises the steps of: - starting up the percussion device, - acting on the control device so as force the percussion device to operate on a short striking stroke for a predetermined period of time from the starting up of the device, and - acting on the control device so as to allow the percussion device to operate on a long striking stroke, after the expiry of the predetermined period of time. - starting up the percussion device, - acting on the control device so as force the percussion device to operate on a short striking stroke for a predetermined period of time from the starting up of the device, and - acting on the control device so as to allow the percussion device to operate on a long striking stroke, after the expiry of the predetermined period of time.
A molding machine, comprising: a machine-ejection assembly; and an auxiliary ejection-assistance assembly being coupled to the machine-ejection assembly; wherein the machine-ejection assembly is supported by a platen assembly, the platen assembly is configured to support, in use, a mold assembly, the machine-ejection assembly is configured to provide, in use, an ejection force to a molded part located in the mold assembly, the ejection force for ejecting the molded part from the mold assembly; and the auxiliary ejection-assistance assembly is configured to apply, in use, an additional ejection force being usable for ejecting, in use, the molded part from the mold assembly; characterised in that, the auxiliary ejection-assistance assembly includes: a booster cylinder; an accumulator bottle; a control valve; and an intensifier cylinder, the booster cylinder is connected to the control valve, the booster cylinder is also connected with the machine-ejection assembly, the intensifier cylinder is also connected to the control valve, the accumulator bottle is connected to the control valve, and the intensifier cylinder is connected between a stationary platen and a movable platen. a machine-ejection assembly; and an auxiliary ejection-assistance assembly being coupled to the machine-ejection assembly; wherein the machine-ejection assembly is supported by a platen assembly, the platen assembly is configured to support, in use, a mold assembly, the machine-ejection assembly is configured to provide, in use, an ejection force to a molded part located in the mold assembly, the ejection force for ejecting the molded part from the mold assembly; and the auxiliary ejection-assistance assembly is configured to apply, in use, an additional ejection force being usable for ejecting, in use, the molded part from the mold assembly; characterised in that, the auxiliary ejection-assistance assembly includes: a booster cylinder; an accumulator bottle; a control valve; and an intensifier cylinder, the booster cylinder is connected to the control valve, the booster cylinder is also connected with the machine-ejection assembly, the intensifier cylinder is also connected to the control valve, the accumulator bottle is connected to the control valve, and a booster cylinder; an accumulator bottle; a control valve; and an intensifier cylinder, the booster cylinder is connected to the control valve, the booster cylinder is also connected with the machine-ejection assembly, the intensifier cylinder is also connected to the control valve, the accumulator bottle is connected to the control valve, and the intensifier cylinder is connected between a stationary platen and a movable platen.
An antimicrobial composition comprising: a) Thymol; b) Terpineol; c) Niacinamide d) an Antimicrobial peptide; and e) a cosmetically acceptable base. a) Thymol; b) Terpineol; c) Niacinamide d) an Antimicrobial peptide; and e) a cosmetically acceptable base.
A positive active material for a rechargeable lithium battery, comprising a nickel-based lithium transition metal oxide comprising a secondary particle, the secondary particle comprising an agglomeration of a plurality of primary particles, the secondary particle comprising a core and a surface layer surrounding the core, and the surface layer comprising primary particles and a nano-sized cobalt-based lithium transition metal oxide between the primary particles, wherein the secondary particle comprises a small particle diameter secondary particle having an average particle diameter of 2 μm to 5 μm and a large particle diameter secondary particle having an average particle diameter of 15 μm to 20 μm, wherein the cobalt-based lithium transition metal oxide has an average particle diameter of less than 1 μm and is a compound represented by Chemical Formula 1: [Chemical Formula 1] Li a Co x M 1-x O 2 wherein, in Chemical Formula 1, 0.9 ≤ a ≤ 1.05, 0.8 ≤ x ≤ 1.0, and M is at least one metal element selected from Ni, Mn, Al, Cr, Fe, V, Mg, Ti, Zr, Nb, Mo, W, Cu, Zn, Ga, In, Sn, La, and Ce, and wherein the nickel-based lithium transition metal oxide is a compound represented by Chemical Formula 2: [Chemical Formula 2] Li a Ni x Co y M z O 2 wherein, in Chemical Formula 2, 0.9 ≤ a ≤ 1.05, 0.4 ≤ x ≤ 0.95, 0.1 ≤ y ≤0.3, 0.1 ≤ z ≤ 0.3, x + y + z =1, M is at least one metal element selected from Mn, Al, Cr, Fe, V, Mg, Ti, Zr, Nb, Mo, W, Cu, Zn, Ga, In, Sn, La, and Ce. a nickel-based lithium transition metal oxide comprising a secondary particle, the secondary particle comprising an agglomeration of a plurality of primary particles, the secondary particle comprising a core and a surface layer surrounding the core, and the surface layer comprising primary particles and a nano-sized cobalt-based lithium transition metal oxide between the primary particles, wherein the secondary particle comprises a small particle diameter secondary particle having an average particle diameter of 2 μm to 5 μm and a large particle diameter secondary particle having an average particle diameter of 15 μm to 20 μm, wherein the cobalt-based lithium transition metal oxide has an average particle diameter of less than 1 μm and is a compound represented by Chemical Formula 1: [Chemical Formula 1] Li a Co x M 1-x O 2 wherein, in Chemical Formula 1, 0.9 ≤ a ≤ 1.05, 0.8 ≤ x ≤ 1.0, and M is at least one metal element selected from Ni, Mn, Al, Cr, Fe, V, Mg, Ti, Zr, Nb, Mo, W, Cu, Zn, Ga, In, Sn, La, and Ce, and wherein the nickel-based lithium transition metal oxide is a compound represented by Chemical Formula 2: [Chemical Formula 2] Li a Ni x Co y M z O 2 wherein, in Chemical Formula 2, 0.9 ≤ a ≤ 1.05, 0.4 ≤ x ≤ 0.95, 0.1 ≤ y ≤0.3, 0.1 ≤ z ≤ 0.3, x + y + z =1, M is at least one metal element selected from Mn, Al, Cr, Fe, V, Mg, Ti, Zr, Nb, Mo, W, Cu, Zn, Ga, In, Sn, La, and Ce.