mhurhangee/ep-ind-claims huggingface dataset:
An ink composition for ink-jet recording comprising: a pigment; self-dispersing resin particles having a glass transition temperature of 80°C or higher containing a water-insoluble polymer containing hydrophilic constituent units and hydrophobic constituent units, the hydrophobic constituent units being derived from an alicyclic (meth)acrylate; at least one water-soluble organic solvent; and water, wherein the total mass of solid content in the ink composition for ink-jet recording is 10% by mass or more relative to the ink composition, and the at least one water-soluble organic solvent includes at least one organic solvent having an SP value of 27.5 or lower, the amount of the at least one organic solvent having an SP value of 27.5 or lower being 70% by mass or more relative to a total amount of the at least one water-soluble organic solvent. a pigment; self-dispersing resin particles having a glass transition temperature of 80°C or higher containing a water-insoluble polymer containing hydrophilic constituent units and hydrophobic constituent units, the hydrophobic constituent units being derived from an alicyclic (meth)acrylate; at least one water-soluble organic solvent; and water, wherein the total mass of solid content in the ink composition for ink-jet recording is 10% by mass or more relative to the ink composition, and the at least one water-soluble organic solvent includes at least one organic solvent having an SP value of 27.5 or lower, the amount of the at least one organic solvent having an SP value of 27.5 or lower being 70% by mass or more relative to a total amount of the at least one water-soluble organic solvent.
A formulation of a fat-soluble active ingredient with high bioavailability comprising a fat-soluble active ingredient and a protective colloid characterized in that said formulation when dissolved, dispersed or diluted in/with water has an extinction E1/1 at a wavelength in the range of from 200 to 800 nm of ≥ 380, characterized in that the fat-soluble active ingredient is selected from the group consisting of carotenoids and fat-soluble vitamins, as well as their physiologically acceptable esters and any mixtures of them; and characterized in that the carotenoid is selected from the group consisting of β-carotene, 8'-apo-β-carotenal, lutein, zeaxanthin, lycopene, astaxantin, canthaxanthin, citranaxanthin, 8'-apo-β-carotenoic acid ethyl ester and any mixture of them, and characterized in that the protective colloid is selected from the group consisting of plant gums, modified plant gums, gelatine, cross-linked gelatine, starch, modified starch, ligninsulphonate, sugar, apple pectin, citrus pectin, modified pectin, maltodextrin and plant proteins.
A method comprising: creating (302, 201) a first asymmetric key pair (201A, 201B) in a trusted platform module of a first electronic device, said first asymmetric key pair (201A, 201B) comprising a first public key (201A, PK1) and a first secret key (SK1, 201B); associating (304, 201) said first public key (201A, PK1) with software platform state information (200A, PCR) within said first electronic device; certifying (306, 202) said first public key (201A, PK1) and said software platform state information (200A, PCR) with an attestation identity key associated with said trusted platform module to produce a first certificate (202A, 210B); creating (308, 203) a second asymmetric key pair in an application within said first electronic device, said second asymmetric key pair comprising a second public key (203A1, PK2) and a second secret key (203A2, PK2); certifying (310, 206) said second public key (203A1, PK2) with said first secret key to produce a second certificate (206A, 210C); signing (316, 210), by the application, a first message with the second secret key to provide a message signature in said first electronic device; and providing (318, 211) a second message to a second electronic device, the second message comprising said first message, said message signature, said software platform state information (200A, 208B), said first certificate and said second certificate. creating (302, 201) a first asymmetric key pair (201A, 201B) in a trusted platform module of a first electronic device, said first asymmetric key pair (201A, 201B) comprising a first public key (201A, PK1) and a first secret key (SK1, 201B); associating (304, 201) said first public key (201A, PK1) with software platform state information (200A, PCR) within said first electronic device; certifying (306, 202) said first public key (201A, PK1) and said software platform state information (200A, PCR) with an attestation identity key associated with said trusted platform module to produce a first certificate (202A, 210B); creating (308, 203) a second asymmetric key pair in an application within said first electronic device, said second asymmetric key pair comprising a second public key (203A1, PK2) and a second secret key (203A2, PK2); certifying (310, 206) said second public key (203A1, PK2) with said first secret key to produce a second certificate (206A, 210C); signing (316, 210), by the application, a first message with the second secret key to provide a message signature in said first electronic device; and providing (318, 211) a second message to a second electronic device, the second message comprising said first message, said message signature, said software platform state information (200A, 208B), said first certificate and said second certificate.
A valve or coupling comprising an apparatus for providing operator feedback in response to opening or closing of a valve or coupling, further comprising: data storage means for storing at least one recommended opening or closing event of the valve; sensing means for sensing operator actuation of the valve or coupling; and processing means for comparing the sensed actuation of the valve or coupling against the recommended opening or closing event of the valve or coupling in real-time or near real-time, and outputting at least one operator feedback signal based on the comparison; wherein the sensing means for sensing operator actuation of the valve or coupling is positioned on an actuator; wherein the actuator comprises an elongate handle having an elongate shaft with one end of the shaft being dimensioned to form a knob; the other end of the shaft being dimensioned to form a central hub comprising a first face for connection to the valve or coupling and an opposite second face that is visible to the operator; and wherein the sensing means for sensing operator actuation of the valve or coupling senses the rotational position of a valve closure member relative to a valve housing. data storage means for storing at least one recommended opening or closing event of the valve; sensing means for sensing operator actuation of the valve or coupling; and processing means for comparing the sensed actuation of the valve or coupling against the recommended opening or closing event of the valve or coupling in real-time or near real-time, and outputting at least one operator feedback signal based on the comparison; wherein the sensing means for sensing operator actuation of the valve or coupling is positioned on an actuator; wherein the actuator comprises an elongate handle having an elongate shaft with one end of the shaft being dimensioned to form a knob; the other end of the shaft being dimensioned to form a central hub comprising a first face for connection to the valve or coupling and an opposite second face that is visible to the operator; and wherein the sensing means for sensing operator actuation of the valve or coupling senses the rotational position of a valve closure member relative to a valve housing. wherein the sensing means for sensing operator actuation of the valve or coupling is positioned on an actuator; wherein the actuator comprises an elongate handle having an elongate shaft with one end of the shaft being dimensioned to form a knob; the other end of the shaft being dimensioned to form a central hub comprising a first face for connection to the valve or coupling and an opposite second face that is visible to the operator; and wherein the sensing means for sensing operator actuation of the valve or coupling senses the rotational position of a valve closure member relative to a valve housing.
A powder coating center for supplying a powder coating installation with coating powder, - which has a powder storage container comprising a powder conveyor (3, 23, G1) for transporting powder out of the powder storage container in the direction of the powder coating installation, - which has a container lid, which covers the powder storage container during the powder conveyance and can be removed at least partly for the purpose of cleaning the powder storage container, - which has a cleaning unit for cleaning the powder storage container and the container lid, which can be moved from a parking position next to the powder storage container into a cleaning position in the powder storage container by means of a manipulator (8, 9), - which has a controller, by means of which the powder conveyor (3, 23, G1), the cleaning unit, and the manipulator (8, 9) can be controlled. - which has a powder storage container comprising a powder conveyor (3, 23, G1) for transporting powder out of the powder storage container in the direction of the powder coating installation, - which has a container lid, which covers the powder storage container during the powder conveyance and can be removed at least partly for the purpose of cleaning the powder storage container, - which has a cleaning unit for cleaning the powder storage container and the container lid, which can be moved from a parking position next to the powder storage container into a cleaning position in the powder storage container by means of a manipulator (8, 9), - which has a controller, by means of which the powder conveyor (3, 23, G1), the cleaning unit, and the manipulator (8, 9) can be controlled.
An aromatic alkylation catalyst, comprising: a zeolite; an inorganic oxide; and silanol functional groups of less than 0.49 area/mg on the surface of said zeolite; wherein said zeolite has a Si/Al 2 molar ratio between 18 to 30; wherein the silanol functional groups on the surface of the zeolite have wavelengths of from 3764 to 3700 cm -1 in the infrared spectrum; wherein the area per mg of silanol functional groups on the surface of the zeolite is measured by the steps of: performing an infrared measurement by first pretreating the sample at 500°C in flowing helium for 2 hours; cooling the sample to room temperature to take the spectrum; performing pyridine adsorption at 150°C for one hour followed by discrete desorptions at 150°C, 300°C and 450°C with the spectra taken at room temperature following each discrete desorption; assigning the species from wave numbers of 3700 to 3764 cm -1 as surface silanol functional groups specifically, various terminal silanol; and integrating the areas under this specific range and normalizing to area per milligram; wherein the Si/Al 2 molar ratio is measured by elemental analysis using inductively coupled plasma-atomic emission spectroscopy. a zeolite; an inorganic oxide; and silanol functional groups of less than 0.49 area/mg on the surface of said zeolite; wherein said zeolite has a Si/Al 2 molar ratio between 18 to 30; wherein the silanol functional groups on the surface of the zeolite have wavelengths of from 3764 to 3700 cm -1 in the infrared spectrum; wherein the area per mg of silanol functional groups on the surface of the zeolite is measured by the steps of: performing an infrared measurement by first pretreating the sample at 500°C in flowing helium for 2 hours; cooling the sample to room temperature to take the spectrum; performing pyridine adsorption at 150°C for one hour followed by discrete desorptions at 150°C, 300°C and 450°C with the spectra taken at room temperature following each discrete desorption; assigning the species from wave numbers of 3700 to 3764 cm -1 as surface silanol functional groups specifically, various terminal silanol; and integrating the areas under this specific range and normalizing to area per milligram; performing an infrared measurement by first pretreating the sample at 500°C in flowing helium for 2 hours; cooling the sample to room temperature to take the spectrum; performing pyridine adsorption at 150°C for one hour followed by discrete desorptions at 150°C, 300°C and 450°C with the spectra taken at room temperature following each discrete desorption; assigning the species from wave numbers of 3700 to 3764 cm -1 as surface silanol functional groups specifically, various terminal silanol; and integrating the areas under this specific range and normalizing to area per milligram; wherein the Si/Al 2 molar ratio is measured by elemental analysis using inductively coupled plasma-atomic emission spectroscopy.
A method for operating a driven spindle in a machine tool, particularly in an injection moulding machine, wherein at least two different drives with different technical specifications and characteristics are interconnected and coupled to form a common effective drive, characterized in that - the performance data for each of the different drives are recorded in characteristic values or characteristic curves, - a performance profile for the effective drive is specified, - a performance requirement for the driven spindle is determined, - the operational combination of the drives that results in the performance profile is determined from the performance data based on the performance requirement, and - the drives are operated with the determined operational combination. - the performance data for each of the different drives are recorded in characteristic values or characteristic curves, - a performance profile for the effective drive is specified, - a performance requirement for the driven spindle is determined, - the operational combination of the drives that results in the performance profile is determined from the performance data based on the performance requirement, and - the drives are operated with the determined operational combination.
A processed food sterilization method, comprising: 1) a pretreating microbial reduction step for microwave heat-treating an original ingredient; 2) a packaging step for packaging the pretreated original ingredient; and 3) a sterilization step for retort sterilizing the packaged original ingredient; wherein the original ingredient in step 1) is an original ingredient having been immersed in a natural antimicrobial solution; wherein in step 2), the original ingredient is packaged together with sauce or broth; and wherein the retort sterilization in step 3) is performed for 20 to 40 minutes at 110 to 115°C, or the retort sterilization in step 3) is performed for 5 to 15 minutes at 121 to 125°C. wherein the original ingredient in step 1) is an original ingredient having been immersed in a natural antimicrobial solution; wherein in step 2), the original ingredient is packaged together with sauce or broth; and wherein the retort sterilization in step 3) is performed for 20 to 40 minutes at 110 to 115°C, or the retort sterilization in step 3) is performed for 5 to 15 minutes at 121 to 125°C.
Method of operating a drive means with a mechanically commutated electric motor for a mixer tap for cold and hot water having thermostatic regulation of the mixed water temperature, - wherein a rotated position (s) of the drive means is determined by a circuit from a motor current ripple of the electric motor, - wherein at least one correction value for an error characteristic of the electric motor on starting and stopping is determined - by movement of the drive means into a reference position which can be sensed by means of a position sensor, - by movement of the drive means, starting from the reference position, into a plurality of positions (XR0...XR5, XL0...XL5, X0...Xn) spaced apart from the reference position, the electric motor being actuated by the circuit for a number of waves of the motor current ripple, - by return to the reference position and counting of the number of waves of the ripple and determination by the circuit of at least one positional deviation (ΔXL0, EL1...EL5, ΔXR0, ER1...ER5), the positional deviation (ΔXL0, EL1...EL5, ΔXR0, ER1...ER5) being calculated as the difference between the number of waves counted for movement into the plurality of spaced-apart positions and the number of waves for resetting to the reference position, - wherein to determine the correction values the electric motor is stopped by the circuit in each of the positions (XR0...XR5, XL0...XL5, X0...Xn) spaced apart from the reference position, and - by calculation of the correction value from the positional deviation (ΔXL0, EL1...EL5, ΔXR0, ER1...ER5) that has been determined and storage of that correction value. - wherein a rotated position (s) of the drive means is determined by a circuit from a motor current ripple of the electric motor, - wherein at least one correction value for an error characteristic of the electric motor on starting and stopping is determined - by movement of the drive means into a reference position which can be sensed by means of a position sensor, - by movement of the drive means, starting from the reference position, into a plurality of positions (XR0...XR5, XL0...XL5, X0...Xn) spaced apart from the reference position, the electric motor being actuated by the circuit for a number of waves of the motor current ripple, - by return to the reference position and counting of the number of waves of the ripple and determination by the circuit of at least one positional deviation (ΔXL0, EL1...EL5, ΔXR0, ER1...ER5), the positional deviation (ΔXL0, EL1...EL5, ΔXR0, ER1...ER5) being calculated as the difference between the number of waves counted for movement into the plurality of spaced-apart positions and the number of waves for resetting to the reference position, - wherein to determine the correction values the electric motor is stopped by the circuit in each of the positions (XR0...XR5, XL0...XL5, X0...Xn) spaced apart from the reference position, and - by calculation of the correction value from the positional deviation (ΔXL0, EL1...EL5, ΔXR0, ER1...ER5) that has been determined and storage of that correction value.
Epoxy resin composition comprising: A) at least one epoxy compound and B) a hardener composition comprising: B1) 0.1%-100% by weight of 2-(2,2,6,6-tetramethylpiperidin-4-yl)propane-1,3-diamine and B2) 99.9%-0% by weight of at least one further diamine and/or polyamine, where the stoichiometric ratio of the epoxy groups of A) and the number of active hydrogen atoms of the functional groups of B) varies from 1:2 to 2:1, C) optionally 0.1% to 10% by weight of at least one hardening accelerator, D) optionally at least one latent hardener, where the amounts of A)-D) add up to 100% by weight, F) optionally further additives. A) at least one epoxy compound and B) a hardener composition comprising: B1) 0.1%-100% by weight of 2-(2,2,6,6-tetramethylpiperidin-4-yl)propane-1,3-diamine and B2) 99.9%-0% by weight of at least one further diamine and/or polyamine, where the stoichiometric ratio of the epoxy groups of A) and the number of active hydrogen atoms of the functional groups of B) varies from 1:2 to 2:1, B1) 0.1%-100% by weight of 2-(2,2,6,6-tetramethylpiperidin-4-yl)propane-1,3-diamine and B2) 99.9%-0% by weight of at least one further diamine and/or polyamine, C) optionally 0.1% to 10% by weight of at least one hardening accelerator, D) optionally at least one latent hardener, where the amounts of A)-D) add up to 100% by weight, F) optionally further additives.
A composition for coating a frozen confection, the composition comprising 10 to 50 wt. % dry glucose syrup with a DE (Dextrose Equivalent) comprised from 20 to 40, and with a total amount of mono and di-saccharides below 10 wt. %, and a water activity below 1.0 and 35 to 70 wt. % fat, wherein the fat has a saturated fat level below 60%. 10 to 50 wt. % dry glucose syrup with a DE (Dextrose Equivalent) comprised from 20 to 40, and with a total amount of mono and di-saccharides below 10 wt. %, and a water activity below 1.0 and 35 to 70 wt. % fat, wherein the fat has a saturated fat level below 60%.
Mineral thermal insulation plaster system applied, preferably sprayed, in layers to an, in particular vertical, underground, preferably a wall, comprising at least one binder matrix of at least one hardened mineral binder, as well as staple fibers and insulating particles in the form of micro hollow glass spheres or in the form of micro hollow glass spheres and aerogel embedded in the binder matrix, characterized in that the thermal insulation plaster system is graded at least over its cross-section.
A method of molding glass wine bottles (20 or 30) having a body, a neck finish (24, 32) and a neck extending between the neck finish and the body, said neck finish having a cylindrical internal diameter for receiving a cork-type closure, said method being adapted for use with one but not both of a cork-type plug closure and a Stelvin-type threaded closure, said method including the steps of: (a) forming a glass parison having a temporary body and a completed neck finish (24 or 32) contoured for receiving either but not both of a cork-type plug closure and a Stelvin-type threaded closure, (b) transferring the glass parison formed in said step (a) to a mold stage, and then (c) blow molding the temporary body of the parison at said mold stage to form a glass bottle having a neck coupled to said neck finish, characterized by the steps of: (d) changing the neck ring that molds the neck finish while leaving the blow mold at the blow stage unchanged, (e) repeating steps (a) through (c) using the neck ring changed in step (d) and the unchanged blow mold, wherein said neck adjacent to said neck finish of said glass bottle formed in steps (a) through (c) and said neck adjacent to said neck finish of said glass bottle formed in step (e) have - an external dimension from the top surface of the neck finish to the wide spot in the neck and - an external diameter across the wide spot in the neck adapted for a Stelvin-type threaded closure and - a cylindrical interior adapted for a cork-type plug closure, wherein the internal diameter extends for at least a distance into the neck finish and the neck adjacent to the neck finish. (a) forming a glass parison having a temporary body and a completed neck finish (24 or 32) contoured for receiving either but not both of a cork-type plug closure and a Stelvin-type threaded closure, (b) transferring the glass parison formed in said step (a) to a mold stage, and then (c) blow molding the temporary body of the parison at said mold stage to form a glass bottle having a neck coupled to said neck finish, (d) changing the neck ring that molds the neck finish while leaving the blow mold at the blow stage unchanged, (e) repeating steps (a) through (c) using the neck ring changed in step (d) and the unchanged blow mold, - an external dimension from the top surface of the neck finish to the wide spot in the neck and - an external diameter across the wide spot in the neck adapted for a Stelvin-type threaded closure and - a cylindrical interior adapted for a cork-type plug closure, wherein the internal diameter extends for at least a distance into the neck finish and the neck adjacent to the neck finish.