mhurhangee/ep-ind-claims huggingface dataset:
A method for generating a verification token by a verification token manufacturer, the method comprising: generating a serial number for a verification token; generating a verification token specific key pair including a public component and a private component based on a verification token manufacturer master key; associating the serial number with the verification token specific key pair; and storing the private component of the verification token specific key pair to a memory in the verification token, validating the verification token by a validation server, wherein the private component of the verification token specific key pair is used by the verification token to generate a response to a signed challenge message from the validation server by decrypting the signed challenge message using the private component, and the verification token manufacturer master key is used by the validation server to further decrypt the response received from the verification token to determine that the verification token is from a trusted verification token manufacturer. generating a serial number for a verification token; generating a verification token specific key pair including a public component and a private component based on a verification token manufacturer master key; associating the serial number with the verification token specific key pair; and storing the private component of the verification token specific key pair to a memory in the verification token, validating the verification token by a validation server, wherein the private component of the verification token specific key pair is used by the verification token to generate a response to a signed challenge message from the validation server by decrypting the signed challenge message using the private component, and the verification token manufacturer master key is used by the validation server to further decrypt the response received from the verification token to determine that the verification token is from a trusted verification token manufacturer.
A method for producing paraffin from waste plastic feedstock and kerosene and/or another source(s) of hydrocarbons comprising the steps of: providing a first feed stream comprising kerosene and/or another source(s) of hydrocarbons; pre-fractionating the first feed stream to produce a first heart cut paraffin stream comprising paraffins in a heart cut range, wherein the first heart cut paraffin stream comprises C9-C19 hydrocarbons; combining the first heart cut paraffin stream with a second feed stream comprising waste plastic feedstock to form a combined stream; hydrotreating the combined stream; and fractionating the hydrotreated stream to remove paraffins that are heavier and/or lighter than the heart cut range to form a second heart cut paraffin stream. providing a first feed stream comprising kerosene and/or another source(s) of hydrocarbons; pre-fractionating the first feed stream to produce a first heart cut paraffin stream comprising paraffins in a heart cut range, wherein the first heart cut paraffin stream comprises C9-C19 hydrocarbons; combining the first heart cut paraffin stream with a second feed stream comprising waste plastic feedstock to form a combined stream; hydrotreating the combined stream; and fractionating the hydrotreated stream to remove paraffins that are heavier and/or lighter than the heart cut range to form a second heart cut paraffin stream.
A recombinant nucleic acid molecule comprising a nucleotide sequence that encodes a polypeptide that is a variant of SEQ ID NO:2, wherein said polypeptide has improved pesticidal activity relative to SEQ ID NO:2 and wherein said nucleotide sequence is selected from SEQ ID NO:4, 5, or 6, or a nucleotide sequence encoding an amino acid sequence selected from SEQ ID NO:7, 8, 9, 10, 11, or 12.
A method for preventing retraction of an aqueous drop on a hydrophobic surface comprising the steps of: a) preparing a composition comprising a nonionic surfactant mixture having a first nonionic surfactant and a second nonionic surfactant, dissolved in an aqueous media; and b) impinging said composition of step (a) on the hydrophobic surface; wherein the first nonionic surfactant is selected from the group consisting of 3,7,11,15-tetramethyl-1,2,3-hexadecanetriol, phytanetriol, glycerol monooleate (HLB of 3.8), glycerol monostearate (HLB 3.4), and acyl glycerol and said second nonionic surfactant is selected from the group consisting of Tween 20, Tween 40, Tween 80, PEO-PPO-PEO block copolymer, PEO-PPO diblock copolymer, and poloxamers, wherein the ratio of water to surfactant in the surfactant mixture is in the range of 95:5 to 99.9:0.1 by weight and the aqueous drop retraction is less than 5%. a) preparing a composition comprising a nonionic surfactant mixture having a first nonionic surfactant and a second nonionic surfactant, dissolved in an aqueous media; and b) impinging said composition of step (a) on the hydrophobic surface;
Pneumatic vehicle tyre for passenger vehicles, in particular for use under wintery driving conditions, with a tread having profile positives, in particular profile blocks (3, 4), and with diagonal grooves which run in a V-shaped manner over the tread width and delimit profile positives, wherein profile positives are provided in which in each case a number of sipes running substantially parallel to one another is formed, the sipes extending at an angle (γ) of 60° to 90° to a profile positive edge (8a, 8b), which delimits the profile positive in the case of a diagonal groove, and leading at the associated profile positive flank (7a, 7b) into the diagonal groove, characterized in that the substantially rectilinearly running microgrooves are formed on profile positive flanks (7a, 7b) of profile positives which delimit the diagonal grooves and in which the sipes run at an angle (γ) of 60° to 90° to the associated profile positive edges (8a, 8b), said microgrooves extending along the profile positive flanks (7a, 7b) at an acute angle (δ) of 20° to 40° to the profile positive edges (8a, 8b) in such a manner that they rise with respect to the profile positive surface in the direction of the tread outer side, and said microgrooves having a depth (t 3) of 0.2 mm to 0.5 mm and, at the profile positive flank (7a, 7b), a width (d) which corresponds at least to their depth (t 3).
Polymer composition for production of shaped objects via selective sintering wherein the polymer composition comprises a thermoplastic material having: • a crystallisation half time of ≥ 30 s and ≤ 12 min at a supercooling of 50°C below the peak melt temperature, wherein the crystallisation half time t 1⁄2,c as determined via differential scanning calorimetry in accordance with ISO 11357-1; • a glass transition temperature T g of ≥ 50°C as determined in accordance with ISO 11357-2; • a peak melt temperature T p,m of ≥ 200°C as determined in accordance with ISO 11357-3, first heating run; • an extrapolated first heating run melt onset temperature T ei,m of ≥ 5°C above the extrapolated first cooling run crystallisation end temperature T ef,c as determined in accordance with ISO 11357-1, first heating and cooling run; and • a degree of crystallinity of ≥ 10.0 % as determined according to the formula: D = ΔH f ΔH f, 100 ∗ 100 % wherein: • D = degree of crystallinity of the thermoplastic material (%); • ΔH f = enthalpy of fusion of the thermoplastic material as determined in accordance with ISO 11357-3; • ΔH f,100 = enthalpy of fusion of the thermoplastic material in a 100% crystalline state wherein the thermoplastic material is a polyester. • a crystallisation half time of ≥ 30 s and ≤ 12 min at a supercooling of 50°C below the peak melt temperature, wherein the crystallisation half time t 1⁄2,c as determined via differential scanning calorimetry in accordance with ISO 11357-1; • a glass transition temperature T g of ≥ 50°C as determined in accordance with ISO 11357-2; • a peak melt temperature T p,m of ≥ 200°C as determined in accordance with ISO 11357-3, first heating run; • an extrapolated first heating run melt onset temperature T ei,m of ≥ 5°C above the extrapolated first cooling run crystallisation end temperature T ef,c as determined in accordance with ISO 11357-1, first heating and cooling run; and • a degree of crystallinity of ≥ 10.0 % as determined according to the formula: D = ΔH f ΔH f, 100 ∗ 100 % wherein: • D = degree of crystallinity of the thermoplastic material (%); • ΔH f = enthalpy of fusion of the thermoplastic material as determined in accordance with ISO 11357-3; • ΔH f,100 = enthalpy of fusion of the thermoplastic material in a 100% crystalline state wherein the thermoplastic material is a polyester. • D = degree of crystallinity of the thermoplastic material (%); • ΔH f = enthalpy of fusion of the thermoplastic material as determined in accordance with ISO 11357-3; • ΔH f,100 = enthalpy of fusion of the thermoplastic material in a 100% crystalline state
An internal combustion engine comprising: a housing defining a rotor cavity; a rotor rotationally received within the rotor cavity to define a plurality of working chambers of variable volume around the rotor, the rotor having circumferentially spaced peripheral seals (56,60) biased radially outwardly from the rotor and slidingly engaging a portion of an inner surface of the housing upon rotation of the rotor to separate the working chambers from one another, the housing having a fluid passage (70;170;270) defined therethrough opening (72;172;272) into the portion of the inner surface engaging each of the peripheral seals (56,60); and an injector having an inlet for fluid communication with a pressurized lubricant source and a selectively openable and closable outlet, the outlet being in fluid communication with the fluid passage (70;170;270) for delivering the pressurized lubricant to the peripheral seals (56,60) through the fluid passage (70;170;270), characterised in that: the engine further comprises sensors (97; 197) configured to provide data on lubricant temperature and/or lubricant pressure, wherein the injector is controlled by an engine control unit configured to adjust the flow and/or frequency of pressurised lubricant injection based on the lubricant temperature and/or pressure. a housing defining a rotor cavity; a rotor rotationally received within the rotor cavity to define a plurality of working chambers of variable volume around the rotor, the rotor having circumferentially spaced peripheral seals (56,60) biased radially outwardly from the rotor and slidingly engaging a portion of an inner surface of the housing upon rotation of the rotor to separate the working chambers from one another, the housing having a fluid passage (70;170;270) defined therethrough opening (72;172;272) into the portion of the inner surface engaging each of the peripheral seals (56,60); and an injector having an inlet for fluid communication with a pressurized lubricant source and a selectively openable and closable outlet, the outlet being in fluid communication with the fluid passage (70;170;270) for delivering the pressurized lubricant to the peripheral seals (56,60) through the fluid passage (70;170;270), characterised in that: the engine further comprises sensors (97; 197) configured to provide data on lubricant temperature and/or lubricant pressure, wherein the injector is controlled by an engine control unit configured to adjust the flow and/or frequency of pressurised lubricant injection based on the lubricant temperature and/or pressure.
An aqueous suspension comprising (i) water; (ii) a zeolitic material and one or more of copper and iron, wherein the one or more of copper and iron is either comprised in the zeolitic material, or in a source of one or more of copper and iron, or in the zeolitic material and in a source of one or more of copper and iron; (iii) a chelate complex comprising a zirconium ion and a bidentate organic ligand bonded to said zirconium ion via zirconium oxygen bonds from two oxygen atoms comprised in said ligand, said chelate complex being dissolved in the water. (i) water; (ii) a zeolitic material and one or more of copper and iron, wherein the one or more of copper and iron is either comprised in the zeolitic material, or in a source of one or more of copper and iron, or in the zeolitic material and in a source of one or more of copper and iron; (iii) a chelate complex comprising a zirconium ion and a bidentate organic ligand bonded to said zirconium ion via zirconium oxygen bonds from two oxygen atoms comprised in said ligand, said chelate complex being dissolved in the water.
An image capturing apparatus (450, 800) comprising: an image sensor that comprises pixels that are arranged in rows and in columns and that include respective photoelectric converters (501a, 501b), and that is configured to perform an image capturing operation for reading out signals of the pixels; a lifetime estimating unit (109, 813, 913) that is configured to estimate a remaining lifetime of the image sensor, and a driving control unit that is configured to control drive of the image sensor, characterized in that in a case, where the remaining lifetime is longer than a predetermined length, the driving control unit is configured to drive the image sensor in a first condition, and in a case, where the remaining lifetime is shorter than the predetermined length, the driving control unit is configured to drive the image sensor in a second condition, wherein the number of the pixels that are read out in the second condition is smaller than the number of the pixels that are read out in the first condition, or the number of the pixels that perform a focus detection operation in the second condition is smaller than the number of the pixels that perform a focus detection operation in the first condition. an image sensor that comprises pixels that are arranged in rows and in columns and that include respective photoelectric converters (501a, 501b), and that is configured to perform an image capturing operation for reading out signals of the pixels; a lifetime estimating unit (109, 813, 913) that is configured to estimate a remaining lifetime of the image sensor, and a driving control unit that is configured to control drive of the image sensor, characterized in that in a case, where the remaining lifetime is longer than a predetermined length, the driving control unit is configured to drive the image sensor in a first condition, and in a case, where the remaining lifetime is shorter than the predetermined length, the driving control unit is configured to drive the image sensor in a second condition, wherein the number of the pixels that are read out in the second condition is smaller than the number of the pixels that are read out in the first condition, or the number of the pixels that perform a focus detection operation in the second condition is smaller than the number of the pixels that perform a focus detection operation in the first condition.
A razor head comprising: - a main frame member extending along a transversal axis, - at least one blade member mounted on the main frame member, having a blade edge extending along the transversal axis, and - a guard bar having a plurality of grooves, each groove having a bottom surface that extends along a longitudinal axis perpendicular to the transversal axis from a groove front end up to a groove rear end in proximity of the blade edge, wherein each groove comprises a deep section located next to the groove front end, a shallow section located next to the groove rear end and a sloped section connecting the deep section to the shallow section, characterized in that the grooves are separated one from the other by a plurality of ribs having top surfaces, a rib defining a groove depth measured along a vertical axis, perpendicular to the longitudinal axis and to the transversal axis, between a bottom surface of a groove and a top surface of a rib, the groove depth is substantially constant along the shallow section and/or the deep section. - a main frame member extending along a transversal axis, - at least one blade member mounted on the main frame member, having a blade edge extending along the transversal axis, and - a guard bar having a plurality of grooves, each groove having a bottom surface that extends along a longitudinal axis perpendicular to the transversal axis from a groove front end up to a groove rear end in proximity of the blade edge,
An earplug comprising: a solid core comprising a first end, a second end, and a major outer surface, wherein a longitudinal axis extends between the first end and the second end; a sound attenuating body attached to the major outer surface of the solid core, the sound attenuating body comprising a tip and a base, wherein the tip of the sound attenuating body is located proximate the first end of the solid core and the base is located closer to the second end of the solid core than the first end of the solid core, and wherein the solid core extends through at least a portion of the sound attenuating body and completely fills at least the portion of the sound attenuating body; and a tip cavity in the sound attenuating body, wherein the tip cavity extends from the tip of the sound attenuating body towards a bottom nearest to the base of the sound attenuating body, and wherein the tip cavity comprises a tip cavity cross-sectional area that is greater than a core cross-sectional area, wherein the tip cavity cross-sectional area is measured in a first plane located at the first end of the solid core and transverse to the longitudinal axis, wherein the core cross-sectional area is measured in a second plane transverse to the longitudinal axis, wherein the second plane passes through the sound attenuating body below the bottom of the tip cavity and above the base of the sound attenuating body. a solid core comprising a first end, a second end, and a major outer surface, wherein a longitudinal axis extends between the first end and the second end; a sound attenuating body attached to the major outer surface of the solid core, the sound attenuating body comprising a tip and a base, wherein the tip of the sound attenuating body is located proximate the first end of the solid core and the base is located closer to the second end of the solid core than the first end of the solid core, and wherein the solid core extends through at least a portion of the sound attenuating body and completely fills at least the portion of the sound attenuating body; and a tip cavity in the sound attenuating body, wherein the tip cavity extends from the tip of the sound attenuating body towards a bottom nearest to the base of the sound attenuating body, and wherein the tip cavity comprises a tip cavity cross-sectional area that is greater than a core cross-sectional area, wherein the tip cavity cross-sectional area is measured in a first plane located at the first end of the solid core and transverse to the longitudinal axis, wherein the core cross-sectional area is measured in a second plane transverse to the longitudinal axis, wherein the second plane passes through the sound attenuating body below the bottom of the tip cavity and above the base of the sound attenuating body.
A heating assembly in a blade of a wind turbine generator, characterized in that said heating assembly comprises: a heat reservoir positioned within a cavity of said blade and mounted to a spar of said blade, said heat reservoir in communication with a heat source wherein said heat source includes a hot air generator in communication with said heat reservoir through a duct for delivering hot air; and said heat reservoir including a plurality of orifices for venting hot air from said heat reservoir. a heat reservoir positioned within a cavity of said blade and mounted to a spar of said blade, said heat reservoir in communication with a heat source wherein said heat source includes a hot air generator in communication with said heat reservoir through a duct for delivering hot air; and said heat reservoir including a plurality of orifices for venting hot air from said heat reservoir.
An apparatus for opening a furniture part which is movable in relation to a furniture body, especially a drawer, comprising at least two ejector apparatuses and at least two release apparatuses which are spaced from each other, and are coupled to each other dependent on the movement, and which can be provided on a movable furniture part or a furniture body for triggering the at least two ejector apparatuses, wherein the at least two ejector apparatuses can only be triggered during impact of at least two release elements which are coupled to each other dependent on the movement, characterized in that the release elements are connected via a rod which is axially rotatable perpendicularly to the ejection direction, wherein the rod can be mounted on a rear wall of a movable furniture part or a furniture body or a strut fixed to a furniture body, wherein the release elements are fixed in a twist-proof manner to the rod within the terms of a two-arm lever.
A process for preparing at least one aldehyde under hydroformylation temperature and pressure conditions, comprising contacting at least one olefin with hydrogen and carbon monoxide in the presence of at least one solvent and a transition metal-based catalyst composition comprising a phospholane phosphite ligand represented by the following general formula: wherein: R1 and R2 are independently selected from substituted and unsubstituted, aryl, alkyl, aryloxy or cycloalkyl groups containing from 1 to 40 carbon atoms; R3 and R4 are independently selected from substituted and unsubstituted, aryl, alkyl, alkoxy, trialkylsilyl, triarylsilyl, aryldialkylsilyl diarylalkylsilyl and cycloalkyl groups containing from 1 to 20 carbon atoms, wherein the silicon atom of the alkylsilyl is in the alpha position of the substituent; and R5 is independently selected from H, or alkyl group; wherein the at least one solvent is octofluorotoluene or perfluorophenyl octyl ether or wherein the at least one solvent is selected from n-nonane, n-decane, n-undecane, and n-dodecane; and wherein the pressure ranges from 5.07 bar (5 atm) to 70.93 bar (70 atm); and the temperature ranges from 40 to 120 degrees Celsius. R1 and R2 are independently selected from substituted and unsubstituted, aryl, alkyl, aryloxy or cycloalkyl groups containing from 1 to 40 carbon atoms; R3 and R4 are independently selected from substituted and unsubstituted, aryl, alkyl, alkoxy, trialkylsilyl, triarylsilyl, aryldialkylsilyl diarylalkylsilyl and cycloalkyl groups containing from 1 to 20 carbon atoms, wherein the silicon atom of the alkylsilyl is in the alpha position of the substituent; and R5 is independently selected from H, or alkyl group; wherein the at least one solvent is octofluorotoluene or perfluorophenyl octyl ether or wherein the at least one solvent is selected from n-nonane, n-decane, n-undecane, and n-dodecane; and wherein the pressure ranges from 5.07 bar (5 atm) to 70.93 bar (70 atm); and the temperature ranges from 40 to 120 degrees Celsius.