mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacture of a nanocomposite material with antibacterial properties using carbon quantum dots CQD, characterized that, comprising mixing of a polymer and a filler together, while the amount of the filler in the mixture is max 10% wt, and the polymer is selected from polyamide, acrylics, butadiene, dialkylphtalate, dimethylsiloxanes, isoprene, isobutylene, styrene structural units, the filler is hydrophobic carbon quantum dots hCQD which are prepared by bottom-up condensation reaction of polyoxyethylene-polyoxypropylene-polyoxyethylene in which: - polyoxyethylene-polyoxypropylene-polyoxyethylene in the amount between 2 and 10 mass % is dissolved in water, - mixing the obtained solution with concentrated phosphoric acid in the amount of up to two times higher than the amount of water used for dissolving polyoxyethylene-polyoxypropylene-polyoxyethylene, - processing the compound at 240 - 260°C for 90 - 240 minutes, - cooling the compound to room temperature, - mixing the compound with toluene or chlorophorm in the amount of up to three times higher than the amount of water used for dissolving polyoxyethylene-polyoxypropylene-polyoxyethylene, - decantating the compound from water, - and filtrating the compound of hydrophobic carbon quantum dots hCQD dissolved in toluene or chlorophorm. - polyoxyethylene-polyoxypropylene-polyoxyethylene in the amount between 2 and 10 mass % is dissolved in water, - mixing the obtained solution with concentrated phosphoric acid in the amount of up to two times higher than the amount of water used for dissolving polyoxyethylene-polyoxypropylene-polyoxyethylene, - processing the compound at 240 - 260°C for 90 - 240 minutes, - cooling the compound to room temperature, - mixing the compound with toluene or chlorophorm in the amount of up to three times higher than the amount of water used for dissolving polyoxyethylene-polyoxypropylene-polyoxyethylene, - decantating the compound from water, - and filtrating the compound of hydrophobic carbon quantum dots hCQD dissolved in toluene or chlorophorm.
Bicycle tyre comprising: - two sidewalls connecting a tread to two beads, - a continuous toothset, of generatrix substantially radial with respect to the axis of rotation of the tyre of axial direction (YY'), positioned circumferentially on an axially exterior face of at least one sidewall, and intended to collaborate with a complementary toothset, - the toothset being made up of teeth that are equidistant by a pitch p, - each tooth having a length l, in the direction of the generatrix, and a substantially triangular section in a plane perpendicular to the generatrix, - the substantially triangular section comprising a first and a second side (IK, IJ) emanating from a first vertex, referred to as the crest of the tooth, and a third side opposite the first vertex and positioned on the axially exterior face of the sidewall, - the first and second sides (IJ, IK) respectively forming, with the direction (VV') perpendicular to the third side, a first and a second angle (A 1, A 2), - the distance between the crest of the tooth and its orthogonal projection onto the third side defining the height h of the tooth, - each tooth comprising an elastomeric material having an elastic shear modulus G*, characterized in that the elastic shear modulus G* of the elastomeric material of the teeth is at least equal to a threshold elastic shear modulus G* s, the threshold elastic shear modulus G* s being such that the displacement d of the crest of each tooth is equal to 0.2 times the height h of the tooth under the action of a uniform pressure P applied by the complementary toothset to the side (IK, IJ) that forms the smallest angle (A 1, A 2), equal to 650/(l×h×(2.67-0.33Xp)). - two sidewalls connecting a tread to two beads, - a continuous toothset, of generatrix substantially radial with respect to the axis of rotation of the tyre of axial direction (YY'), positioned circumferentially on an axially exterior face of at least one sidewall, and intended to collaborate with a complementary toothset, - the toothset being made up of teeth that are equidistant by a pitch p, - each tooth having a length l, in the direction of the generatrix, and a substantially triangular section in a plane perpendicular to the generatrix, - the substantially triangular section comprising a first and a second side (IK, IJ) emanating from a first vertex, referred to as the crest of the tooth, and a third side opposite the first vertex and positioned on the axially exterior face of the sidewall, - the first and second sides (IJ, IK) respectively forming, with the direction (VV') perpendicular to the third side, a first and a second angle (A 1, A 2), - the distance between the crest of the tooth and its orthogonal projection onto the third side defining the height h of the tooth, - each tooth comprising an elastomeric material having an elastic shear modulus G*,
A non-foamed aqueous composition having a % solids of at least 5% and up to and including 50%, that is shear thinning with a zero shear viscosity of at least 100 mPa-sec and up to and including 1000 mPa-sec as measured at 25°C using a frequency sweep as outlined in the description, the non-foamed aqueous composition comprising components i) through iv): i) porous particles present in an amount of at least 0.1 weight % and up to and including 20 weight %, each porous particle comprising a continuous polymeric phase and discrete pores dispersed within the continuous polymeric phase, having a mode particle size of at least 2 μm and up to and including 50 μm, and optionally comprising an opacifying colorant in an amount of up to and including 1 weight %, the amount of the opacifying colorant being based on the total weight of the i) porous particles; ii) a film-forming binder material comprising at least a chlorinated polymer, which ii) film-forming binder material is present in an amount of at least 4 weight % and up to and including 20 weight %; iii) a white inorganic particulate filler material having a refraction index greater than 2 and a median particle size of less than 1 μm, the iii) inorganic particulate filler material being present in an amount of at least 2 weight % and up to and including 15 weight %; and iv) a white low-density particulate hydrated alumina having a density of less than 4 and a median particle size of less than or equal to 3 μm, and being present in an amount of at least 2 weight % and up to and including 16 weight %, all amounts of the i), ii), iii), and iv) components being based on the total weight of the non-foamed aqueous composition, wherein the mode particle size is measured as outlined in the description. i) porous particles present in an amount of at least 0.1 weight % and up to and including 20 weight %, each porous particle comprising a continuous polymeric phase and discrete pores dispersed within the continuous polymeric phase, having a mode particle size of at least 2 μm and up to and including 50 μm, and optionally comprising an opacifying colorant in an amount of up to and including 1 weight %, the amount of the opacifying colorant being based on the total weight of the i) porous particles; ii) a film-forming binder material comprising at least a chlorinated polymer, which ii) film-forming binder material is present in an amount of at least 4 weight % and up to and including 20 weight %; iii) a white inorganic particulate filler material having a refraction index greater than 2 and a median particle size of less than 1 μm, the iii) inorganic particulate filler material being present in an amount of at least 2 weight % and up to and including 15 weight %; and iv) a white low-density particulate hydrated alumina having a density of less than 4 and a median particle size of less than or equal to 3 μm, and being present in an amount of at least 2 weight % and up to and including 16 weight %, all amounts of the i), ii), iii), and iv) components being based on the total weight of the non-foamed aqueous composition, wherein the mode particle size is measured as outlined in the description.
A GaAs substrate having a first surface, wherein particles are present in the first surface, whereby the particles are foreign matter and oxides, damages are present inside a second surface of the GaAs substrate, whereby the damages are faults, a sum of a number of the particles having a longer diameter of more than or equal to 0.16 μm, per cm 2, and a number of the damages having a longer diameter of more than or equal to 0.16 μm, per cm 2, is less than or equal to 2.1, whereby the longer diameter of a particle refers to a distance between two points separated most in an outer circumference of the particle, and the longer diameter of a damage refers to a distance between two points separated most in an outer circumference of the damage, the damages being determined, when etching the first surface of the GaAs substrate by 0.5 μm in a depth direction. particles are present in the first surface, whereby the particles are foreign matter and oxides, damages are present inside a second surface of the GaAs substrate, whereby the damages are faults, a sum of a number of the particles having a longer diameter of more than or equal to 0.16 μm, per cm 2, and a number of the damages having a longer diameter of more than or equal to 0.16 μm, per cm 2, is less than or equal to 2.1, whereby the longer diameter of a particle refers to a distance between two points separated most in an outer circumference of the particle, and the longer diameter of a damage refers to a distance between two points separated most in an outer circumference of the damage, the damages being determined, when etching the first surface of the GaAs substrate by 0.5 μm in a depth direction.
A preparation method of a particle structure of cathode material, characterized by comprising steps of: (a) providing a precursor configured to form a core, wherein the precursor comprises at least nickel, cobalt and manganese; (b) providing a metal salt and a lithium ion compound, wherein the metal salt comprises at least potassium, aluminum and sulfur; (c) mixing the metal salt, the lithium ion compound and the precursor to form a mixture; and (d) subjecting the mixture to a heat treatment step to form the particle structure of cathode material, wherein the particle structure of cathode material comprises the core, a first coating layer and a second coating layer, wherein the core comprises potassium, aluminum and a Li-M-O based material, wherein M comprises nickel, cobalt, and manganese, wherein the first coating layer is coated on the core, and the second coating layer is coated on the first coating layer, wherein the first coating layer comprises potassium and aluminum, and a potassium content of the first coating layer is higher than a potassium content of the core, wherein the second coating layer comprises sulfur. (a) providing a precursor configured to form a core, wherein the precursor comprises at least nickel, cobalt and manganese; (b) providing a metal salt and a lithium ion compound, wherein the metal salt comprises at least potassium, aluminum and sulfur; (c) mixing the metal salt, the lithium ion compound and the precursor to form a mixture; and (d) subjecting the mixture to a heat treatment step to form the particle structure of cathode material, wherein the particle structure of cathode material comprises the core, a first coating layer and a second coating layer, wherein the core comprises potassium, aluminum and a Li-M-O based material, wherein M comprises nickel, cobalt, and manganese, wherein the first coating layer is coated on the core, and the second coating layer is coated on the first coating layer, wherein the first coating layer comprises potassium and aluminum, and a potassium content of the first coating layer is higher than a potassium content of the core, wherein the second coating layer comprises sulfur.
A method for preventing a scattering of a CO 2 absorption liquid from a CO 2 absorber, comprising, removing particulates in a flue gas; spraying calcium carbonate to the flue gas; cooling the flue gas so as to convert SO 3 from a gas state to a mist state so that SO 3 in the mist state is neutralized by the sprayed calcium carbonate, thereby decreasing an amount of SO 3 mist introduced to the CO 2 absorber, wherein SO 3 is a mist generation source that entrains the CO2 absorption liquid and scatters outside, removing sulfur oxides in the flue gas using SO x removal equipment; decreasing temperature of the flue gas; and bringing CO 2 in a flue gas into contact with a CO 2 absorption liquid so as to remove the CO 2 in the flue gas with an absorber and causing the CO 2 absorption liquid to emit CO 2 so as to recover the CO 2_ and regenerate the CO 2 absorption liquid.
Cooling system for a power converter, having - a first cooling channel - a second cooling channel wherein the first and the second cooling channel (11,12) are arranged in parallel, at least in sections, wherein in the region of the parallel arrangement the first cooling channel is embodied for the cooling of semiconductors of the power converter, wherein in the region of the parallel arrangement the second cooling channel is embodied for the cooling of intermediate circuit capacitors of the power converter, wherein the cooling channels (11,12) are embodied as air channels, wherein the cooling system has an air distributor, characterised in that the cooling system has at least one temperature sensor, wherein the air distributor is embodied so as to divide the air stream between the first cooling channel and the second cooling channel in the ratio in a range of 80:20 to 95:5 as a function of at least one measurement value of the at least one temperature sensor. - a first cooling channel - a second cooling channel wherein the first and the second cooling channel (11,12) are arranged in parallel, at least in sections, wherein in the region of the parallel arrangement the first cooling channel is embodied for the cooling of semiconductors of the power converter, wherein in the region of the parallel arrangement the second cooling channel is embodied for the cooling of intermediate circuit capacitors of the power converter, wherein the cooling channels (11,12) are embodied as air channels, wherein the cooling system has an air distributor, characterised in that the cooling system has at least one temperature sensor, wherein the air distributor is embodied so as to divide the air stream between the first cooling channel and the second cooling channel in the ratio in a range of 80:20 to 95:5 as a function of at least one measurement value of the at least one temperature sensor.
A use of a platinum complex according to formula for imaging wherein - Y 1 to Y 9 represent carbon atoms, - R 1-4, R 6, R 7, R 9, R 19-22, R 24, R 25, R 27-31, R 33, R 34, and R 36 are H, - X 1, X 3, X 4, X 6, X 7, X 9, X 10, X 12, X 13, X 15, X 16 and X 18 are nitrogen atoms, - X 2, X 5, X 8, X 11, X 14 and X 17 are carbon atoms, Westfälische Wilhelms -Universität Münster - R 5, R8 or R 23, R 26, R 32 and R 35 are CF 3, - L represents PPh 3 or a pyridine group, and - L-L' represents PPh 2 -CH 2 -CH 2 PPh 2, PPh 2 -CH 2 -PPh 2, pyridazine or pyridine-CH 2 -CH 2 pyridine. - Y 1 to Y 9 represent carbon atoms, - R 1-4, R 6, R 7, R 9, R 19-22, R 24, R 25, R 27-31, R 33, R 34, and R 36 are H, - X 1, X 3, X 4, X 6, X 7, X 9, X 10, X 12, X 13, X 15, X 16 and X 18 are nitrogen atoms, - X 2, X 5, X 8, X 11, X 14 and X 17 are carbon atoms, - R 5, R8 or R 23, R 26, R 32 and R 35 are CF 3, - L represents PPh 3 or a pyridine group, and - L-L' represents PPh 2 -CH 2 -CH 2 PPh 2, PPh 2 -CH 2 -PPh 2, pyridazine or pyridine-CH 2 -CH 2 pyridine.
A method for preparing a soluble and functional telomerase complex in cell-free systems comprising at least the following steps: a) providing a reaction medium comprising at least the following components: - a nucleic acid template coding for the telomerase reverse transcriptase subunit (TERT) - a DNA template coding for the intrinsic telomerase RNA, - an RNA polymerase - an eukaryotic cell lysate; b) concomitantly performing a translation reaction to synthesize the telomerase reverse transcriptase subunit (TERT) and a transcription reaction to synthesize the intrinsic telomerase RNA; c) self-assembling of the TERT protein subunit and the TR RNA subunit in the reaction medium to form a functional telomerase complex; d) optionally further purifying and/or isolating the telomerase complex, characterised in that the method is carried out in a device which comprises at least two compartments separated by a dialysis membrane, wherein the translation and transcription reactions take place in at least one first compartment, the reaction compartment, and, during the translation and transcription reactions, i) reactants diffuse through the dialysis membrane out of at least one further compartment, the supply and discharge compartment, into the reaction compartment and ii) reaction by-products diffuse through the dialysis membrane out of the reaction compartment into the supply and discharge compartment. a) providing a reaction medium comprising at least the following components: - a nucleic acid template coding for the telomerase reverse transcriptase subunit (TERT) - a DNA template coding for the intrinsic telomerase RNA, - an RNA polymerase - an eukaryotic cell lysate; - a nucleic acid template coding for the telomerase reverse transcriptase subunit (TERT) - a DNA template coding for the intrinsic telomerase RNA, - an RNA polymerase - an eukaryotic cell lysate; b) concomitantly performing a translation reaction to synthesize the telomerase reverse transcriptase subunit (TERT) and a transcription reaction to synthesize the intrinsic telomerase RNA; c) self-assembling of the TERT protein subunit and the TR RNA subunit in the reaction medium to form a functional telomerase complex; d) optionally further purifying and/or isolating the telomerase complex,
Regenerative heat exchanger for transferring heat from a first free-flowing solid to a second free-flowing solid, with a heat exchanger surface which is arranged between a solids inlet and a solids outlet, wherein the same solids inlet is used for introduction of the first free-flowing solid and the second free-flowing solid into the heat exchanger, and the same solids outlet is used for discharge of the first free-flowing solid and the second free-flowing solid from the heat exchanger, with a positioning device by means of which the position of the heat exchanger surface can be changed between a heat-absorbing position and a heat-emitting position, wherein in the heat-absorbing position, a first side of the heat exchanger surface is assigned to the solids inlet and a second side to the solids outlet, and wherein in the heat-emitting position, the second side is assigned to the solids inlet and the first side to the solids outlet, wherein in the heat-absorbing position of the heat exchanger surface, the first free-flowing solid flows at least supported by gravity from top to bottom in a movement direction along the heat exchanger surface from the first side to the second side of the heat exchanger surface, and wherein in the heat-emitting position, the second free-flowing solid flows at least supported by gravity from top to bottom along the heat exchanger surface substantially from the second side to the first side of the heat exchanger surface.
Mixed current sensor comprising: - a housing, - a magnetic current sensor having a winding wound around a magnetic circuit, - a current measurement device comprising a winding of Rogowski type arranged in such a way that a primary circuit of the magnetic sensor corresponds to the primary circuit of said current measurement device, - electronic means for acquiring and measuring the electrical current, said means being powered by the winding of the magnetic sensor; the sensor being characterized in that it comprises a link cassette comprising - first fastening means arranged to position and hold said cassette by snap-fitting on an insulating frame of the measurement device; said frame comprising snap-fitting means suitable for collaborating with the first fastening means of the link cassette; - second fastening means arranged to position and hold said cassette and the measurement device by snap-fitting on the housing; - electrical pins linked respectively to the winding of Rogowski type and to the electronic acquisition means. - a housing, - a magnetic current sensor having a winding wound around a magnetic circuit, - a current measurement device comprising a winding of Rogowski type arranged in such a way that a primary circuit of the magnetic sensor corresponds to the primary circuit of said current measurement device, - electronic means for acquiring and measuring the electrical current, said means being powered by the winding of the magnetic sensor; the sensor being characterized in that it comprises a link cassette comprising - first fastening means arranged to position and hold said cassette by snap-fitting on an insulating frame of the measurement device; said frame comprising snap-fitting means suitable for collaborating with the first fastening means of the link cassette; - second fastening means arranged to position and hold said cassette and the measurement device by snap-fitting on the housing; - electrical pins linked respectively to the winding of Rogowski type and to the electronic acquisition means. - first fastening means arranged to position and hold said cassette by snap-fitting on an insulating frame of the measurement device; said frame comprising snap-fitting means suitable for collaborating with the first fastening means of the link cassette; - second fastening means arranged to position and hold said cassette and the measurement device by snap-fitting on the housing; - electrical pins linked respectively to the winding of Rogowski type and to the electronic acquisition means.
A transgenic mouse comprising: (a) a mutated endogenous heavy chain gene locus and a mutated endogenous kappa light chain gene locus with reduced or eliminated ability to produce functional immunoglobulin tetramers comprising re-arranged heavy and light chains, wherein the mutations comprise the introduction of a frame shift mutation, a polypeptide-encoding sequence or one or more stop codons into each locus, wherein the mutation in the endogenous heavy chain gene locus is the introduction of a stop codon; and (b)(i) a transgenic locus comprising a heterologous kappa light chain gene locus and associated B-cell specific regulatory elements; and/or (b)(ii) a transgenic locus comprising a heterologous lambda light chain gene locus and associated B-cell specific regulatory elements; and (c) a transgenic locus comprising one or more heterologous heavy chain gene loci, wherein the heterologous light chain loci comprise human variable regions comprising V L and J segments and rat constant regions, and wherein the heterologous heavy chain loci comprise human variable regions comprising one or more V gene segments, one or more J gene segments and one or more D gene segments, rat constant regions and a heavy chain immunoglobulin LCR of murine origin. (a) a mutated endogenous heavy chain gene locus and a mutated endogenous kappa light chain gene locus with reduced or eliminated ability to produce functional immunoglobulin tetramers comprising re-arranged heavy and light chains, wherein the mutations comprise the introduction of a frame shift mutation, a polypeptide-encoding sequence or one or more stop codons into each locus, wherein the mutation in the endogenous heavy chain gene locus is the introduction of a stop codon; and (b)(i) a transgenic locus comprising a heterologous kappa light chain gene locus and associated B-cell specific regulatory elements; and/or (b)(ii) a transgenic locus comprising a heterologous lambda light chain gene locus and associated B-cell specific regulatory elements; and (c) a transgenic locus comprising one or more heterologous heavy chain gene loci,