mhurhangee/patent-ind-claim-en huggingface dataset:
A method for packaging a food product, said method comprising receiving at least one piece of packaging material (PM) in a packaging machine , said packaging material (PM) comprising a cellulose-based mid-layer , an inside layer arranged to face the food product (FP), and an outside layer ,wherein an ink-based print is provided on the outside layer , curing the inside layer of the at least one piece of packaging material (PM) such that ink particles , released from the outside layer to the inside layer , are bound to the inside layer , thereby preventing the ink particles from being released into the food product (FP), forming the at least one piece of packaging material (PM) into packages , and filling the packages with the food product (FP). receiving at least one piece of packaging material (PM) in a packaging machine , said packaging material (PM) comprising a cellulose-based mid-layer , an inside layer arranged to face the food product (FP), and an outside layer ,wherein an ink-based print is provided on the outside layer , curing the inside layer of the at least one piece of packaging material (PM) such that ink particles , released from the outside layer to the inside layer , are bound to the inside layer , thereby preventing the ink particles from being released into the food product (FP), forming the at least one piece of packaging material (PM) into packages , and filling the packages with the food product (FP).
A cartridge for use with an aerosol-generating system , the cartridge comprising: a housing defining a liquid containing volume, the housing includes a sidewall extending from a mouthpiece end to a power supply end ; a transparent region forming at least a portion of the sidewall; and a light source fixed to the sidewall and configured to transmit light into the liquid containing volume. a housing defining a liquid containing volume, the housing includes a sidewall extending from a mouthpiece end to a power supply end ; a transparent region forming at least a portion of the sidewall; and a light source fixed to the sidewall and configured to transmit light into the liquid containing volume.
Identification document comprising layer A), B) and C), wherein A) is a thermoplastic, B) is a layer produced from a latently reactive adhesive which is storage-stable at least for 6 months at +2°C, and C) is a thermoplastic, characterised in that the adhesive contains an aqueous dispersion containing a diisocyanate or polyisocyanate having a melting point or softening point of > 30°C and an isocyanate-reactive polymer, wherein the isocyanate-reactive polymer is a polyurethane which is synthesised from crystallising polymer chains which, when measured using TMA, decrystallise partially or completely at temperatures below +110°C.
A method for heating a preform , the method comprising the steps of: providing a plurality of preforms suitable for blow molding; heating each preform ; and measuring the temperature of at least a portion of each preform along its longitudinal axis (O) and around its circumference; the method characterized by the following steps: inspecting each preform to identify at least a material from which the preform is formed; and optimizing the heating step based on a comparison of the measuring step to the inspecting step to ensure each preform has been heated to an acceptable temperature to ensure the heating step for subsequent preforms is optimized for blow molding to militate against blowouts thereof. providing a plurality of preforms suitable for blow molding; heating each preform ; and measuring the temperature of at least a portion of each preform along its longitudinal axis (O) and around its circumference; the method characterized by the following steps: inspecting each preform to identify at least a material from which the preform is formed; and optimizing the heating step based on a comparison of the measuring step to the inspecting step to ensure each preform has been heated to an acceptable temperature to ensure the heating step for subsequent preforms is optimized for blow molding to militate against blowouts thereof.
System for the production of animal feed and/or food products, by treatment of raw materials supplied to the system, comprising, under the control of a control system , carrying out an assortment of one or more treatments from a group of different static treatments, carrying out an assortment of one or more treatments from a group of different dynamic treatments, and transport operations carried out between and/or during these treatments, which system comprises a housing and/or framework with vertically stacked treatment layers, each extending substantially horizontally, of which the static treatment layers , arranged for the predominantly static treatment of raw materials and/or intermediates, and the dynamic treatment layers , arranged for intermediate transport and/or the predominantly dynamic treatment of raw materials and/or intermediates, alternate each other vertically characterized, in that the static treatment layers are provided with static treatment modules with at least one input docking port on the upper side and at least one output docking port on the bottom side, which static treatment modules are arranged for performing one or more of the predominantly static treatments, wherein the dynamic treatment layers, under the control of the control system, are provided with movable mobile treatment modules with an input docking port on the upper side and an output docking port on the bottom side, which mobile treatment modules are arranged for carrying out one or more treatments of the predominantly dynamic treatments, wherein the mobile treatment modules and/or the static treatment modules are arranged such that on the one hand the mobile treatment modules, under the control of the control system, are able to be docked to the static treatment modules of an above positioned static treatment layer and, on the other hand, are able to be docked, under the control of the control system, to one or more static treatment modules of a static treatment layer underneath, wherein the respective mobile treatment module, if the dock locations are different, under the control of the control system, is moved from the first docking location (A) to the second docking location (B).
A mounting jacket for receiving an airbag for a vehicle occupant restraint system which can be transferred from an idle condition to an inflated condition and in the inflated condition forms an impact area for a vehicle occupant, the mounting jacket including a seam which is arranged at least partially at a distance from a first precut - preferably including a perforation - for opening the mounting jacket upon inflation of the airbag , wherein the mounting jacket includes a second precut and a third precut , which are arranged at least partially between the seam and the first precut , characterized in that the first precut , the second precut , and the third precut divide a first portion of the mounting jacket into a first zone , a second zone and a third zone , with the third zone being a front or rear end portion of the mounting jacket , and with the second zone being disposed between the first zone and the third zone forming a predetermined tearing portion at the first precut upon inflation of the airbag .
A manufacturing method of an SMC, comprising: (i) forming chopped carbon fiber bundles by chopping a continuous carbon fiber bundle having a filament number of NK with a rotary cutter ; (ii) fragmentation-processing the chopped carbon fiber bundles by using a fragmentation-processing apparatus comprising a rotating body; (iii) forming a carbon fiber mat by depositing the fragmentation-processed chopped carbon fiber bundles on a carrier film traveling below the rotary cutter ; and (iv) impregnating the carbon fiber mat with a thermosetting resin composition, characterized in that the continuous carbon fiber bundle is a continuous carbon fiber bundle partially split into n sub-bundles (where, n is an integer of 2 or more) such that N/n is 10 to 25. (i) forming chopped carbon fiber bundles by chopping a continuous carbon fiber bundle having a filament number of NK with a rotary cutter ; (ii) fragmentation-processing the chopped carbon fiber bundles by using a fragmentation-processing apparatus comprising a rotating body; (iii) forming a carbon fiber mat by depositing the fragmentation-processed chopped carbon fiber bundles on a carrier film traveling below the rotary cutter ; and (iv) impregnating the carbon fiber mat with a thermosetting resin composition,
Compressed air supply system for supplying compressed air to a pneumatic system , in particular an air supply system of a commercial vehicle, comprising: - a compressed air input port , a compressed air output port and a vent port , - a pneumatic main pipe arranged between the compressed air input port and the compressed air output port , - a pneumatic vent pipe arranged between the compressed air output port and the vent port and connected to the pneumatic main pipe , - a purge valve arranged in the pneumatic vent pipe for venting the compressed air supply system , comprising a first and a second purge valve port and a control port , - a regeneration valve for controlling a regeneration flow of compressed air through an air dryer arranged in the main pipe , comprising at least a first and a second regeneration valve port , - a governor valve for generating a pressure signal, comprising at least a first and a second governor valve port , and - a first and a second pneumatic control pipe , wherein the first pneumatic control pipe connects the second regeneration valve port of the regeneration valve to the control port of the purge valve and the second pneumatic control pipe connects the second governor valve port of governor valve with the control port of the purge valve , wherein either the first or the second pneumatic control pipe is open. - a compressed air input port , a compressed air output port and a vent port , - a pneumatic main pipe arranged between the compressed air input port and the compressed air output port , - a pneumatic vent pipe arranged between the compressed air output port and the vent port and connected to the pneumatic main pipe , - a purge valve arranged in the pneumatic vent pipe for venting the compressed air supply system , comprising a first and a second purge valve port and a control port , - a regeneration valve for controlling a regeneration flow of compressed air through an air dryer arranged in the main pipe , comprising at least a first and a second regeneration valve port , - a governor valve for generating a pressure signal, comprising at least a first and a second governor valve port , and - a first and a second pneumatic control pipe , wherein the first pneumatic control pipe connects the second regeneration valve port of the regeneration valve to the control port of the purge valve and the second pneumatic control pipe connects the second governor valve port of governor valve with the control port of the purge valve , wherein either the first or the second pneumatic control pipe is open.
A process for preparing a biocomposite material comprising a bioadditive from cereal husks and/or brans, said process comprising the steps: (a) mixing the husk or bran with an aqueous alkaline solution (with a pH of at least 7), and stirring and/or homogenizing with a rpm of 30000 or less, preferably 5000 to 30000 rpm, in order to provide a bioadditive; (b) admixing the bioadditive with a dispersion of cellulose pulp, wherein the bioadditive is 75% (wt) or less, preferably 5 to 50% (wt) of the mixture of bioadditive and cellulose pulp,to provide a biocomposite; and (c) thermoforming the biocomposite material, with a moulded pulp process comprising compressing the biocomposite material in a mould at elevated temperature and an elevated pressure, thereby curing said biocomposite material. (a) mixing the husk or bran with an aqueous alkaline solution (with a pH of at least 7), and stirring and/or homogenizing with a rpm of 30000 or less, preferably 5000 to 30000 rpm, in order to provide a bioadditive; (b) admixing the bioadditive with a dispersion of cellulose pulp, wherein the bioadditive is 75% (wt) or less, preferably 5 to 50% (wt) of the mixture of bioadditive and cellulose pulp,to provide a biocomposite; and (c) thermoforming the biocomposite material, with a moulded pulp process comprising compressing the biocomposite material in a mould at elevated temperature and an elevated pressure, thereby curing said biocomposite material.
A blank-leaving type photographic printing method for classical photographic prints, characterized by comprising the following steps: (A) controlling room humidity to 30-60% RH, and dividing an operation area and a theme-prominent reagent brushing area on a piece of classical photographic printing paper, by use of a pencil according to the size of a photographic film, wherein the remaining part of the classical photographic printing paper becomes a blank-leaving operation area; (B) dropping a liquid reagent on the theme-prominent reagent brushing area on the classic photographic printing paper by use of a dropper, and (C) evenly brushing the liquid reagent with a brush along a single direction; (D) resting the classical photographic printing paper for naturally drying or wind-drying; (E) placing a photographic film above the classical photographic printing paper on which the liquid reagent is brushed, and irradiating for a few minutes by an ultraviolet lamp; (F) separating the classical photographic printing paper from the photographic film, and putting the separated classical photographic printing paper in a classical developing solution; and (G) taking out the developed classical photographic printing paper and washing with water; cleaning the classical photographic printing paper in a classical cleaning solution to remove residual liquid reagent thereon; taking out the classical photographic printing paper, and washing again with clean water for 20 minutes. (A) controlling room humidity to 30-60% RH, and dividing an operation area and a theme-prominent reagent brushing area on a piece of classical photographic printing paper, by use of a pencil according to the size of a photographic film, wherein the remaining part of the classical photographic printing paper becomes a blank-leaving operation area; (B) dropping a liquid reagent on the theme-prominent reagent brushing area on the classic photographic printing paper by use of a dropper, and (C) evenly brushing the liquid reagent with a brush along a single direction; (D) resting the classical photographic printing paper for naturally drying or wind-drying; (E) placing a photographic film above the classical photographic printing paper on which the liquid reagent is brushed, and irradiating for a few minutes by an ultraviolet lamp; (F) separating the classical photographic printing paper from the photographic film, and putting the separated classical photographic printing paper in a classical developing solution; and (G) taking out the developed classical photographic printing paper and washing with water; cleaning the classical photographic printing paper in a classical cleaning solution to remove residual liquid reagent thereon; taking out the classical photographic printing paper, and washing again with clean water for 20 minutes.
A conductive film-forming composition comprising (i) 10 to 70 wt%, based on the total weight of the conductive film-forming composition, of copper oxide particles having a volume average secondary particle size, measured according to the method disclosed in the description, of 20 to 180 nm, (ii) a thixotropic agent, (iii) water, and (iv) a water-soluble polymer dispersant selected from polyvinylpyrrolidone having a weight-average molecular weight of 8000 to 160000 and polyethylene glycol having a weight-average molecular weight of 3000 to 18000, the weight-average molecular weights being measured according to the method disclosed in the description.
A method of making a clear or translucent object by additive manufacturing, comprising: (a) providing a clear or translucent light polymerizable resin, said resin comprising: (i) light-polymerizable monomers, prepolymers, or a combination thereof; (ii) a photoinitiator; and (iii) a polysubstituted linear polyacene ultraviolet light absorbing compound that is polysubstituted with substituents independently selected from the group consisting of: bromo, chloro, -Se-R', and -S-R', where each R' is independently selected from alkyl, aryl, and arylalkyl; and then (b) producing by stereolithography with ultraviolet light a clear or translucent object from said light polymerizable resin. (a) providing a clear or translucent light polymerizable resin, said resin comprising: (i) light-polymerizable monomers, prepolymers, or a combination thereof; (ii) a photoinitiator; and (iii) a polysubstituted linear polyacene ultraviolet light absorbing compound that is polysubstituted with substituents independently selected from the group consisting of: bromo, chloro, -Se-R', and -S-R', where each R' is independently selected from alkyl, aryl, and arylalkyl; and then (i) light-polymerizable monomers, prepolymers, or a combination thereof; (ii) a photoinitiator; and (iii) a polysubstituted linear polyacene ultraviolet light absorbing compound that is polysubstituted with substituents independently selected from the group consisting of: bromo, chloro, -Se-R', and -S-R', where each R' is independently selected from alkyl, aryl, and arylalkyl; and then (b) producing by stereolithography with ultraviolet light a clear or translucent object from said light polymerizable resin.
An inkjet ink comprising: an α,β-unsaturated ether monomer in which the only radiation-curable functional groups present in the monomer are α,β-unsaturated ether groups; a low-viscosity difunctional (meth)acrylate monomer in which the only radiation-curable functional groups present in the monomer are acrylate groups, wherein the low-viscosity difunctional (meth)acrylate monomer has a viscosity of 0.5 to 6.5 mPas at 25°C; and a colouring agent; wherein the ink contains less than 5% by weight of water and volatile organic solvents in total, and less than 3.0% by weight of mono- and difunctional monomers in total, other than the α,β-unsaturated ether monomer and the low-viscosity difunctional (meth)acrylate monomer, where the amounts by weight are based on the total weight of the ink, and wherein the ink has a viscosity of less than 30 mPas at 25°C. an α,β-unsaturated ether monomer in which the only radiation-curable functional groups present in the monomer are α,β-unsaturated ether groups; a low-viscosity difunctional (meth)acrylate monomer in which the only radiation-curable functional groups present in the monomer are acrylate groups, wherein the low-viscosity difunctional (meth)acrylate monomer has a viscosity of 0.5 to 6.5 mPas at 25°C; and a colouring agent; wherein the ink contains less than 5% by weight of water and volatile organic solvents in total, and less than 3.0% by weight of mono- and difunctional monomers in total, other than the α,β-unsaturated ether monomer and the low-viscosity difunctional (meth)acrylate monomer, where the amounts by weight are based on the total weight of the ink, and wherein the ink has a viscosity of less than 30 mPas at 25°C.
An eye drops solution for use in the treatment of Dry eye syndrome characterized in that it comprises Liposomes built with non hydrogenated phospholipids containing Linseed oil, Vitamin A Palmitate, Vitamin E TPGS, and in water phase, Vitamin B12 and Pycnogenols.
A solid pharmaceutical composition comprising a) a pharmaceutically effective amount of a compound of Formula (I) dispersed in a hydroxypropyl methylcellulose acetate succinate (HPMCAS) polymer matrix; and b) a pharmaceutically acceptable carrier; wherein the compound of Formula (I) is present in substantially an amorphous form; and wherein the pharmaceutical composition is a tablet. a) a pharmaceutically effective amount of a compound of Formula (I) dispersed in a hydroxypropyl methylcellulose acetate succinate (HPMCAS) polymer matrix; and b) a pharmaceutically acceptable carrier; wherein the compound of Formula (I) is present in substantially an amorphous form; and wherein the pharmaceutical composition is a tablet. wherein the compound of Formula (I) is present in substantially an amorphous form; and wherein the pharmaceutical composition is a tablet.
A composition comprising (A) 1,1,1,3,3,3-hexafluoroisopropyl methyl ether (HFE-356mmz) and/or 1,1,2,3,3,3-hexafluoropropyl methyl ether (HFE-356mec), and (B) a fluorine oil, which is at least one compound selected from - a perfluoropolyether compound, - a monocarboxylic acid compound, a dicarboxylic acid compound or a silane compound, each containing a perfluoropolyether group, and - a polymer of chlorotrifluoroethylene having a number average molecular weight of ≤ 10,000, and which composition does not contain hexafluoroisopropanol (HFIP). (A) 1,1,1,3,3,3-hexafluoroisopropyl methyl ether (HFE-356mmz) and/or 1,1,2,3,3,3-hexafluoropropyl methyl ether (HFE-356mec), and (B) a fluorine oil, which is at least one compound selected from - a perfluoropolyether compound, - a monocarboxylic acid compound, a dicarboxylic acid compound or a silane compound, each containing a perfluoropolyether group, and - a polymer of chlorotrifluoroethylene having a number average molecular weight of ≤ 10,000, - a perfluoropolyether compound, - a monocarboxylic acid compound, a dicarboxylic acid compound or a silane compound, each containing a perfluoropolyether group, and - a polymer of chlorotrifluoroethylene having a number average molecular weight of ≤ 10,000,
A pneumatic tire comprising: a carcass that extends from a tread portion through sidewall portions to bead portions ; and annular bead cores disposed in the bead portions , and the carcass being turned up along inner circumferential portions of the bead cores , wherein each bead core includes a wire that is wound in a tire circumferential direction, in a normal state where the pneumatic tire is mounted on a normal rim (RM), and is inflated to a normal internal pressure, and no load is applied thereto, an outer end , in a tire radial direction, of the bead core is positioned tire-radially inward of an outer end (Fo), in the tire radial direction, of a flange (F) of the normal rim (RM), the wire is arranged in two or more rows in a tire axial direction, and is wound plural times in the tire radial direction into a stacked state, the number of times the wire is wound in the tire radial direction into the stacked state is greater than or equal to 1.5 times the number of the rows of the wire in the tire axial direction, characterized in that the wire is structured so as to have a plurality of filaments twisted, the wire has a bundle twist structure in which the plurality of the filaments are bundled and twisted, and the wire has an elongation of 0.03% to 0.75% when a tensile force is increased from 2.5 N to 49 N. a carcass that extends from a tread portion through sidewall portions to bead portions ; and annular bead cores disposed in the bead portions , and the carcass being turned up along inner circumferential portions of the bead cores , wherein each bead core includes a wire that is wound in a tire circumferential direction, in a normal state where the pneumatic tire is mounted on a normal rim (RM), and is inflated to a normal internal pressure, and no load is applied thereto, an outer end , in a tire radial direction, of the bead core is positioned tire-radially inward of an outer end (Fo), in the tire radial direction, of a flange (F) of the normal rim (RM), the wire is arranged in two or more rows in a tire axial direction, and is wound plural times in the tire radial direction into a stacked state, the number of times the wire is wound in the tire radial direction into the stacked state is greater than or equal to 1.5 times the number of the rows of the wire in the tire axial direction,