mhurhangee/ep-ind-claims huggingface dataset:
A method of treating biological tissue comprising the steps of: soaking of the biological tissue treated with a crosslinking agent with a saline solution; contacting the soaked biological tissue with an aqueous solution comprising Hydrogen Peroxide; contacting the biological tissue with an aqueous solution comprising PBS and EDTA; contacting the biological tissue with a solution comprising glycerol, ethanol and EDTA; and contacting the biological tissue with a glycerol solution. soaking of the biological tissue treated with a crosslinking agent with a saline solution; contacting the soaked biological tissue with an aqueous solution comprising Hydrogen Peroxide; contacting the biological tissue with an aqueous solution comprising PBS and EDTA; contacting the biological tissue with a solution comprising glycerol, ethanol and EDTA; and contacting the biological tissue with a glycerol solution.
A crystal of a hydrochloride of 2-((3R,4S)-1-(5-(4-chloro-3,5-difluorophenyl)-7-((2-fluoro-6-methylphenyl)(methyl)amino) pyrazolo[1,5-a]pyrimidine-2-carbonyl)-3-methoxypiperidin-4-yl)acetic acid represented by formula.
Primer comprising a mixture, in dispersion or solution in one or more solvents, of I) a pressure-sensitive adhesive comprising at least one base polymer component obtainable by radical copolymerization of monomers below: a) at least one acrylic ester of a linear, primary alcohol having 2 to 10 carbon atoms in the alcohol alkyl radical, b) at least one acrylic ester of a branched, noncyclic alcohol having 4 to 12 carbon atoms in the alcohol alkyl radical, c) 8 to 15 mass percent of acrylic acid, based on the sum of the monomers, d) optionally up to 10 mass percent of other copolymerizable monomers, based on the sum of the monomers, II) at least one thermal crosslinker based on a metal acetylacetonate, a metal alkoxide, or an alkoxy-metal acetylacetonate, III) at least one chlorinated polyolefin, characterized in that the concentration of the sum of the thermal crosslinkers, based on the sum of the base polymer components of the pressure-sensitive adhesive, is in the range from 0.05 mass percent to 5.0 mass percent, and the ratio of the sum of the base polymer component [component I] of the pressure-sensitive adhesive to the sum of the chlorinated polyolefins [component III] in the mixture is in the range from 30:70 to 95:5 mass fractions. I) a pressure-sensitive adhesive comprising at least one base polymer component obtainable by radical copolymerization of monomers below: a) at least one acrylic ester of a linear, primary alcohol having 2 to 10 carbon atoms in the alcohol alkyl radical, b) at least one acrylic ester of a branched, noncyclic alcohol having 4 to 12 carbon atoms in the alcohol alkyl radical, c) 8 to 15 mass percent of acrylic acid, based on the sum of the monomers, d) optionally up to 10 mass percent of other copolymerizable monomers, based on the sum of the monomers, a) at least one acrylic ester of a linear, primary alcohol having 2 to 10 carbon atoms in the alcohol alkyl radical, b) at least one acrylic ester of a branched, noncyclic alcohol having 4 to 12 carbon atoms in the alcohol alkyl radical, c) 8 to 15 mass percent of acrylic acid, based on the sum of the monomers, d) optionally up to 10 mass percent of other copolymerizable monomers, based on the sum of the monomers, II) at least one thermal crosslinker based on a metal acetylacetonate, a metal alkoxide, or an alkoxy-metal acetylacetonate, III) at least one chlorinated polyolefin,
A control system in an apparatus for extracorporeal blood treatment, wherein said apparatus comprises an extracorporeal blood circuit and a connection system for connecting the extracorporeal blood circuit to the vascular system of a patient, wherein the extracorporeal blood circuit comprises a blood processing device and at least one pumping device, said control system being operable in a blood treatment mode, wherein the blood treatment mode involves operating said at least one pumping device to pump blood from the vascular system via the connection system through the blood processing device and back to the vascular system via the connection system, said control system comprising: an input for obtaining measurement data from at least one energy transfer sensor arranged to sense a transfer of energy between the patient and the connection system or between the patient and the extracorporeal blood circuit, and a signal processor connected to the input, characterized in that the control system is operable to switch between a pre-treatment mode and the blood treatment mode, wherein the signal processor is configured to, in the pre-treatment, mode, process the measurement data for detecting a connection of the extracorporeal blood circuit to the vascular system of the patient, said connection being detected by identifying a characteristic change in the measurement data, and, upon such identification, take a dedicated action for controlling the operation of the apparatus. an input for obtaining measurement data from at least one energy transfer sensor arranged to sense a transfer of energy between the patient and the connection system or between the patient and the extracorporeal blood circuit, and a signal processor connected to the input, characterized in that the control system is operable to switch between a pre-treatment mode and the blood treatment mode, wherein the signal processor is configured to, in the pre-treatment, mode, process the measurement data for detecting a connection of the extracorporeal blood circuit to the vascular system of the patient, said connection being detected by identifying a characteristic change in the measurement data, and, upon such identification, take a dedicated action for controlling the operation of the apparatus.
A combustor comprising: a combustor basket to which air can be supplied from the outside; a plurality of first nozzles extending in an axial direction of the combustor basket, the first nozzles being provided at intervals along an inner periphery of the combustor basket surrounding a second nozzle configured to form a pilot flame, and being adapted to supply premixed gas of the air and fuel (f) to the inside of the combustor basket; and a transition piece in which the combustor basket is connected to a base end thereof and which is adapted to burn the premixed gas supplied from the first nozzles, thereby forming a flame front, wherein each of the first nozzles is adapted to supply the premixed gas with fuel concentration changed around its center axis, and wherein each of the first nozzles is configured such that, in a leading end outlet of an extension pipe of the first nozzle, a fuel concentration of the premixed gas in a second area located radially inward of the inside of the combustor basket is relatively higher than that in a first area located radially outward of the inside of the combustor basket, such that the premixed gas of the second area mixes downstream with cooling air that flows out from a gap between the extension pipes and a pilot cone of the second nozzle so that the fuel concentration becomes almost the same as that of the premixed gas in the first area, and such that the flame front has a uniform temperature in an axial direction. a combustor basket to which air can be supplied from the outside; a plurality of first nozzles extending in an axial direction of the combustor basket, the first nozzles being provided at intervals along an inner periphery of the combustor basket surrounding a second nozzle configured to form a pilot flame, and being adapted to supply premixed gas of the air and fuel (f) to the inside of the combustor basket; and a transition piece in which the combustor basket is connected to a base end thereof and which is adapted to burn the premixed gas supplied from the first nozzles, thereby forming a flame front, wherein each of the first nozzles is adapted to supply the premixed gas with fuel concentration changed around its center axis, and wherein each of the first nozzles is configured such that, in a leading end outlet of an extension pipe of the first nozzle, a fuel concentration of the premixed gas in a second area located radially inward of the inside of the combustor basket is relatively higher than that in a first area located radially outward of the inside of the combustor basket, such that the premixed gas of the second area mixes downstream with cooling air that flows out from a gap between the extension pipes and a pilot cone of the second nozzle so that the fuel concentration becomes almost the same as that of the premixed gas in the first area, and such that the flame front has a uniform temperature in an axial direction.
An electronic device, comprising: a display screen, an active area of the display screen comprising a first display area and a second display area, wherein a first distribution density of controllable sub-areas in the first display area is lower than a second distribution density of controllable sub-areas in the second display area; and an optical device, wherein a projection of the optical device on the active area of the display screen is located in the first display area, and the optical device realizes light emission to an external environment and light reception from the external environment through the first display area, wherein the display screen comprises a liquid crystal display display screen, wherein the LCD display screen comprises a light guiding plate, and at least a portion of the light guiding plate corresponding to the first display area is absent. a display screen, an active area of the display screen comprising a first display area and a second display area, wherein a first distribution density of controllable sub-areas in the first display area is lower than a second distribution density of controllable sub-areas in the second display area; and an optical device, wherein a projection of the optical device on the active area of the display screen is located in the first display area, and the optical device realizes light emission to an external environment and light reception from the external environment through the first display area, wherein the display screen comprises a liquid crystal display display screen, wherein the LCD display screen comprises a light guiding plate, and at least a portion of the light guiding plate corresponding to the first display area is absent.
Compounds of formula wherein R 1 and R 2 independently from each other are hydrogen; C 1 -C 20 alkyl; C 2 -C 20 alkenyl; C 3 -C 20 cycloalkyl; C 3 -C 10 cycloalkenyl; or R 1 and R 2 together with the linking nitrogen atom form a 5- 6-membered heterocyclic ring; R 3, R 4 and R 5 independently from each other are C 1 -C 4 alkyl; C 1 -C 4 alkoxy; or a radical of formula (1 a) R 6 is C 1 -C 6 alkyl; A is C 3 -C 6 alkylene; or (C 1 -C 5 alkylene)-O- -(C 1 - C 5)alkylene; and m is 0. R 1 and R 2 independently from each other are hydrogen; C 1 -C 20 alkyl; C 2 -C 20 alkenyl; C 3 -C 20 cycloalkyl; C 3 -C 10 cycloalkenyl; or R 1 and R 2 together with the linking nitrogen atom form a 5- 6-membered heterocyclic ring; R 3, R 4 and R 5 independently from each other are C 1 -C 4 alkyl; C 1 -C 4 alkoxy; or a radical of formula (1 a) R 6 is C 1 -C 6 alkyl; A is C 3 -C 6 alkylene; or (C 1 -C 5 alkylene)-O- -(C 1 - C 5)alkylene; and m is 0.
An intraocular lens having an optical power, P, and a shape factor, X, for implantation in an eye having a cornea, comprising: an anterior surface having an anterior radius, Ra; a posterior surface having a posterior radius, Rp; and wherein the anterior radius Ra and the posterior radius Rp determine the optical power, and the shape factor; wherein the lens has a refractive index, n; wherein the lens has an incident refractive index, ni; wherein the lens has an exiting refractive index, ne; wherein the lens has a thickness T; and the optical power P is determined by P = n − ni / Ra + ne − n / Rp − T / n × n − ni / Ra × ne − n / Rp, wherein the shape factor X is determined by X = Rp + Ra / Rp − Ra, wherein if the optical power P is between 0 diopters and 10 diopters, it has a shape factor X between -3 and -1.6, or wherein if the optical power P is between 5 diopters and 15 diopters, it has a shape factor X between -3 and -1.2, or wherein if the optical power P is between 10 diopters and 20 diopters, it has a shape factor X between -1.9 and -0.8, or wherein if the optical power P is between 15 diopters and 25 diopters, it has a shape factor X between -1.5 and -0.5, or wherein if the optical power P is between 20 diopters and 30 diopters, it has a shape factor X between -1.2 and -0.2, or wherein if the optical power P is greater than 30 diopters, it has a shape factor X between -0.7 and 0. an anterior surface having an anterior radius, Ra; a posterior surface having a posterior radius, Rp; and wherein the anterior radius Ra and the posterior radius Rp determine the optical power, and the shape factor; wherein the lens has a refractive index, n; wherein the lens has an incident refractive index, ni; wherein the lens has an exiting refractive index, ne; wherein the lens has a thickness T; and the optical power P is determined by P = n − ni / Ra + ne − n / Rp − T / n × n − ni / Ra × ne − n / Rp, wherein the shape factor X is determined by X = Rp + Ra / Rp − Ra, wherein if the optical power P is between 0 diopters and 10 diopters, it has a shape factor X between -3 and -1.6, or wherein if the optical power P is between 5 diopters and 15 diopters, it has a shape factor X between -3 and -1.2, or wherein if the optical power P is between 10 diopters and 20 diopters, it has a shape factor X between -1.9 and -0.8, or wherein if the optical power P is between 15 diopters and 25 diopters, it has a shape factor X between -1.5 and -0.5, or wherein if the optical power P is between 20 diopters and 30 diopters, it has a shape factor X between -1.2 and -0.2, or wherein if the optical power P is greater than 30 diopters, it has a shape factor X between -0.7 and 0.
A method comprising: sensing, by a turbine inlet sensor, a turbine inlet temperature of air flow at an inlet of a turbine of an environmental control system; sensing, by a turbine inlet pressure sensor, a turbine inlet pressure of the air flow at the inlet of the turbine; sensing, by a turbine outlet pressure sensor, a turbine outlet pressure of the air flow at an outlet of the turbine; sensing, by a rotational speed sensor, a rotational speed of a rotor of the turbine; receiving, by controller of the environmental control system including processing circuitry and computer-readable memory, the sensed turbine inlet temperature, the sensed turbine inlet pressure, the sensed turbine outlet pressure, and the sensed rotational shaft speed; determining, by the controller, a flow coefficient using the turbine inlet pressure, the turbine outlet pressure, the rotational speed, and a turbine flow coefficient map; determining, by the controller, a weight flow through the turbine using the flow coefficient, the turbine inlet temperature, a turbine inlet nozzle area, and the turbine inlet pressure; characterized in that determining the weight flow through the turbine is according to the following equation: W = F C A N P TIT √ T wherein W is the weight flow through the turbine; F C is the flow coefficient; A N is the turbine inlet nozzle area; P TIT is the turbine inlet pressure; and T is the turbine inlet temperature; and providing, by the controller, an output signal based on the determined weight flow. sensing, by a turbine inlet sensor, a turbine inlet temperature of air flow at an inlet of a turbine of an environmental control system; sensing, by a turbine inlet pressure sensor, a turbine inlet pressure of the air flow at the inlet of the turbine; sensing, by a turbine outlet pressure sensor, a turbine outlet pressure of the air flow at an outlet of the turbine; sensing, by a rotational speed sensor, a rotational speed of a rotor of the turbine; receiving, by controller of the environmental control system including processing circuitry and computer-readable memory, the sensed turbine inlet temperature, the sensed turbine inlet pressure, the sensed turbine outlet pressure, and the sensed rotational shaft speed; determining, by the controller, a flow coefficient using the turbine inlet pressure, the turbine outlet pressure, the rotational speed, and a turbine flow coefficient map; determining, by the controller, a weight flow through the turbine using the flow coefficient, the turbine inlet temperature, a turbine inlet nozzle area, and the turbine inlet pressure; characterized in that determining the weight flow through the turbine is according to the following equation: W = F C A N P TIT √ T wherein W is the weight flow through the turbine; F C is the flow coefficient; A N is the turbine inlet nozzle area; P TIT is the turbine inlet pressure; and T is the turbine inlet temperature; and providing, by the controller, an output signal based on the determined weight flow.
A Radio Frequency Identification, RFID, tag, comprising: an antenna to receive an input AC signal; a processing system coupled with the antenna to optimize signal strength of the input AC signal; a charge pump coupled with the antenna and configured to convert the AC signal to a direct current, DC, signal; characterized in that the RFID tag further comprises: an envelope detector to measure peak voltage of the input AC signal; a further detector to compare an output of the charge pump and an output of the envelope detector and the further detector is configured to send a signal to the processing system to indicate a change in the signal strength. an antenna to receive an input AC signal; a processing system coupled with the antenna to optimize signal strength of the input AC signal; a charge pump coupled with the antenna and configured to convert the AC signal to a direct current, DC, signal; characterized in that the RFID tag further comprises: an envelope detector to measure peak voltage of the input AC signal; a further detector to compare an output of the charge pump and an output of the envelope detector and the further detector is configured to send a signal to the processing system to indicate a change in the signal strength. an envelope detector to measure peak voltage of the input AC signal; a further detector to compare an output of the charge pump and an output of the envelope detector and the further detector is configured to send a signal to the processing system to indicate a change in the signal strength.
Asphalt composition comprising aggregates and a binder material, wherein the binder material comprises humins, which humins comprise carbonaceous water-insoluble by-products of the dehydration of carbohydrates and/or 5-hydroxymethylfurfural and/or ethers or esters of 5-hydroxymethylfurfural.
A Tau protein production accelerator comprising a dry powder, ground product and/or extract of red earthworm (lumbricus rubellus) for use in the treatment or prevention of tauopathy selected from Pick's disease, corticobasal degeneration, progressive supranuclear palsy, chronic traumatic encephalopathy, frontotemporal dementia and parkinsonism linked to chromosome 17, Parkinsonism-dementia complex of Guam, neurofibrillary tangle-predominant senile dementia accompanied by neurofibrillary tangles similar to those of amyloid plaque-free Alzheimer's disease, ganglioglioma, gangliocytoma, subacute sclerosing panencephalitis, tuberous sclerosis, Hallervorden-Spatz disease, frontotemporal dementia, and frontotemporal lobar degeneration
A method for collecting a nucleic acid(s) from a biological sample, comprising the following steps: step a) of mixing an aluminum oxide support, wherein the support is produced by adsorbing a water-soluble neutral polymer onto the surface of aluminum oxide, and a solution containing a nucleic acid(s), thereby adsorbing the nucleic acid(s) to the support, step b) of separating the support on which the nucleic acid(s) is/are adsorbed from the solution mixed in the step a), and step c) of collecting the nucleic acid(s) by adding an eluent to the support on which the nucleic acid(s) is/are adsorbed and which is separated in the step b). step a) of mixing an aluminum oxide support, wherein the support is produced by adsorbing a water-soluble neutral polymer onto the surface of aluminum oxide, and a solution containing a nucleic acid(s), thereby adsorbing the nucleic acid(s) to the support, step b) of separating the support on which the nucleic acid(s) is/are adsorbed from the solution mixed in the step a), and step c) of collecting the nucleic acid(s) by adding an eluent to the support on which the nucleic acid(s) is/are adsorbed and which is separated in the step b).
A silicon-based modulator comprising: a waveguide core that is a PN junction region; a first transition zone that is a P-side region adjacent to the waveguide core in a lateral direction, the first transition zone having a first longitudinal doping profile; and a second transition zone that is an N-side region adjacent to the waveguide core in a lateral direction and on an opposite side as the first transition zone, the second transition zone having a second longitudinal doping profile; a first electrical contact region adjacent to the first transition zone; and a second electrical contact region adjacent to the second transition zone, wherein at least one of the first longitudinal doping profile and the second longitudinal doping profile have a variation of doping concentration along a longitudinal direction that extends a length parallel to the waveguide core and first and second electrical contacts. a waveguide core that is a PN junction region; a first transition zone that is a P-side region adjacent to the waveguide core in a lateral direction, the first transition zone having a first longitudinal doping profile; and a second transition zone that is an N-side region adjacent to the waveguide core in a lateral direction and on an opposite side as the first transition zone, the second transition zone having a second longitudinal doping profile; a first electrical contact region adjacent to the first transition zone; and a second electrical contact region adjacent to the second transition zone, wherein at least one of the first longitudinal doping profile and the second longitudinal doping profile have a variation of doping concentration along a longitudinal direction that extends a length parallel to the waveguide core and first and second electrical contacts.