mhurhangee/patent-ind-claim-en huggingface dataset:
A recyclable polyolefin metallized composite film, wherein the recyclable polyolefin metallized composite film comprises a polyolefin metallized film layer and a polyethylene film layer ; the polyolefin metallized film layer comprises a polyolefin substrate film layer and a metal coating ; the polyolefin substrate film layer is a three-layer composite film structure which successively comprises a substrate film outer layer , a substrate film middle layer , and a substrate film inner layer from top to bottom; films in the substrate film outer layer, the substrate film middle layer and the substrate film inner layer have an identical thickness; a lower surface of the substrate film inner layer is coated with the metal coating , and a lower surface of the metal coating is compounded with the polyethylene film layer by an adhesive characterized in that , the substrate film outer layer, the substrate film middle layer and the substrate film inner layer are co-extruded by three screw extruders through blow molding on a die head to form the polyolefin substrate film layer; a raw material of the substrate film outer layer is 20%-30% polyolefin resin A and 70%-80% polyolefin resin B; a raw material of the substrate film middle layer is 40%-60% polyolefin resin A and 40%-60% polyolefin resin B; and a raw material of the substrate film inner layer 3 is 20%-30% polyolefin resin A and 70%-80% polyolefin resin B; wherein, the polyolefin resin A is a copolymer of propylene and a vinyl monomer; a molar content of the vinyl monomer in the copolymer is 2%-20%, a density of the polyolefin resin A is 0.86 g/cm 3 -0.91 g/cm 3 , and a melting point of the polyolefin resin A is 135°C-168°C; the polyolefin resin B is C6 metallocene polyethylene or C8 metallocene polyethylene, a density of the polyolefin resin B is 0.90 g/cm 3 -0.94 g/cm 3 and a melting point of the polyolefin resin B is 96°C-128°C. characterized in that , the substrate film outer layer, the substrate film middle layer and the substrate film inner layer are co-extruded by three screw extruders through blow molding on a die head to form the polyolefin substrate film layer; a raw material of the substrate film outer layer is 20%-30% polyolefin resin A and 70%-80% polyolefin resin B; a raw material of the substrate film middle layer is 40%-60% polyolefin resin A and 40%-60% polyolefin resin B; and a raw material of the substrate film inner layer 3 is 20%-30% polyolefin resin A and 70%-80% polyolefin resin B; wherein, the polyolefin resin A is a copolymer of propylene and a vinyl monomer; a molar content of the vinyl monomer in the copolymer is 2%-20%, a density of the polyolefin resin A is 0.86 g/cm 3 -0.91 g/cm 3 , and a melting point of the polyolefin resin A is 135°C-168°C; the polyolefin resin B is C6 metallocene polyethylene or C8 metallocene polyethylene, a density of the polyolefin resin B is 0.90 g/cm 3 -0.94 g/cm 3 and a melting point of the polyolefin resin B is 96°C-128°C.
A method for wireless communication, comprising: Receiving, at a device, broadcast information broadcast from a wireless network, said broadcast information indicating certain devices and/or services being available within a coverage area; deciding, at the device, whether to perform event-triggered peer discovery based on the received broadcast information; detecting , by the device, an event triggering peer discovery if the decision is made to perform event-triggered peer discovery; and performing , by the device, peer discovery based on detection of the event triggering peer discovery. Receiving, at a device, broadcast information broadcast from a wireless network, said broadcast information indicating certain devices and/or services being available within a coverage area; deciding, at the device, whether to perform event-triggered peer discovery based on the received broadcast information;
Active compound combinations comprising penflufen of the formula N -[2-(1,3-dimethylbutyl)phenyl]-5-fluoro-1,3-dimethyl-1 H- pyrazole-4-carboxamide: and sulfoxaflor of the formula [6-trifluoromethylpyridin-3-yl]ethyl](methyl)oxido-λ 4 -sulphanylidenecyanamide: in a weight ratio of from 5 : 1 to 1 : 1. penflufen of the formula N -[2-(1,3-dimethylbutyl)phenyl]-5-fluoro-1,3-dimethyl-1 H- pyrazole-4-carboxamide: and sulfoxaflor of the formula [6-trifluoromethylpyridin-3-yl]ethyl](methyl)oxido-λ 4 -sulphanylidenecyanamide: in a weight ratio of from 5 : 1 to 1 : 1.
A production method for a rubber composition for tires, the method comprising: a base kneading step of kneading a rubber component containing a butadiene rubber having a cis content of not less than 96% by mass and a Mooney viscosity ML 1+4 (100°C) of not less than 50, silica, a silane coupling agent, and a basic substance; and a finish kneading step of feeding a vulcanizing material to a kneaded product obtained in the base kneading step, and kneading the resultant mixture, wherein the basic substance is a guanidine. a base kneading step of kneading a rubber component containing a butadiene rubber having a cis content of not less than 96% by mass and a Mooney viscosity ML 1+4 (100°C) of not less than 50, silica, a silane coupling agent, and a basic substance; and a finish kneading step of feeding a vulcanizing material to a kneaded product obtained in the base kneading step, and kneading the resultant mixture, wherein the basic substance is a guanidine.
A molded surface fastener made of synthetic resin comprising a flat plate-shaped base portion and a plurality of engaging elements standing on an upper surface of the base portion , wherein: the engaging element comprises a columnar stem portion standing on the upper surface of the base portion and at least two micro pawl portions protruding mutually in opposite directions outward from an upper end outer peripheral edge of the stem portion in a plan view of the engaging element on a top end part of the engaging element ; the upper end outer peripheral edge of the stem portion is located inside an outer peripheral edge at a base end of the stem portion connected to the base portion in the plan view of the engaging element , characterized in that a pawl width dimension (A) of the micro pawl portions is set to be smaller than a length of a line segment passing through a center of an upper surface of the stem portion and connecting two points on the upper end outer peripheral edge ; and at least one of the micro pawl portions protrudes toward the base portion . the engaging element comprises a columnar stem portion standing on the upper surface of the base portion and at least two micro pawl portions protruding mutually in opposite directions outward from an upper end outer peripheral edge of the stem portion in a plan view of the engaging element on a top end part of the engaging element ; the upper end outer peripheral edge of the stem portion is located inside an outer peripheral edge at a base end of the stem portion connected to the base portion in the plan view of the engaging element , characterized in that a pawl width dimension (A) of the micro pawl portions is set to be smaller than a length of a line segment passing through a center of an upper surface of the stem portion and connecting two points on the upper end outer peripheral edge ; and at least one of the micro pawl portions protrudes toward the base portion .
A floor grinding machine comprising a supporting frame , a grinding unit attached to the supporting frame , and a drive unit connected to the grinding unit , where the grinding unit comprises an upper housing , a lower housing rotatably arranged in relation to the upper housing , and a planetary drive system connected to the drive unit , where the upper housing comprises a top plate and a first side wall projecting downwards from the top plate in an axial direction (AX), wherein the lower housing comprises a bottom plate and a second side wall , where one or more grinding disks adapted for holding a tool are rotatably attached to the bottom plate , where the planetary drive system is arranged to rotate the lower housing and the one or more grinding disks respectively, where the first side wall is coaxially arranged in relation to the second side wall , and where the first side wall in the axial direction (AX) at least partly is overlapping the second side wall , characterized in that a gap is formed in a radial direction (R) between the first side wall and the second side wall , and where a sealing element is arranged in the gap , wherein the upper housing , the lower housing , and the sealing element are forming a sealed volume of the grinding unit , where the sealing element is preventing contaminants from entering the sealed volume . where the grinding unit comprises an upper housing , a lower housing rotatably arranged in relation to the upper housing , and a planetary drive system connected to the drive unit , where the upper housing comprises a top plate and a first side wall projecting downwards from the top plate in an axial direction (AX), wherein the lower housing comprises a bottom plate and a second side wall , where one or more grinding disks adapted for holding a tool are rotatably attached to the bottom plate , where the planetary drive system is arranged to rotate the lower housing and the one or more grinding disks respectively, where the first side wall is coaxially arranged in relation to the second side wall , and where the first side wall in the axial direction (AX) at least partly is overlapping the second side wall , characterized in that a gap is formed in a radial direction (R) between the first side wall and the second side wall , and where a sealing element is arranged in the gap , wherein the upper housing , the lower housing , and the sealing element are forming a sealed volume of the grinding unit , where the sealing element is preventing contaminants from entering the sealed volume .
A method implemented in a computing device, the method comprising: obtaining a master key associated with the computing device; identifying a current boot configuration of the computing device; obtaining an encrypted boot configuration specific key associated with the current boot configuration; using the master key to decrypt the encrypted boot configuration specific key; and using the decrypted boot configuration specific key to decrypt data associated with a current operating system of the computing device running from the current boot configuration, the master key and the encrypted data associated with the current operating system being maintained in a reset resistant store of the computing device that persists across operating system re-installs and operating system resets. obtaining a master key associated with the computing device; identifying a current boot configuration of the computing device; obtaining an encrypted boot configuration specific key associated with the current boot configuration; using the master key to decrypt the encrypted boot configuration specific key; and using the decrypted boot configuration specific key to decrypt data associated with a current operating system of the computing device running from the current boot configuration, the master key and the encrypted data associated with the current operating system being maintained in a reset resistant store of the computing device that persists across operating system re-installs and operating system resets.
Timepiece movement comprising: - at least one drive member (3; 3a, 3b); - a first power take-off and a second power take-off , each kinematically linked to said at least one drive member; - a regulating member kinematically linked to said first power take-off by means of a finishing gear train ; - a movable support holding said regulating member and arranged to pivot between two limit pivot angles with reference to a frame element ; - a pivot control device arranged to pivot said movable support between said limit pivot angles in a back-and-forth movement; - a control gear train connecting said pivot control device to said second power take-off , said pivot control gear train being distinct from said finishing gear train . - at least one drive member (3; 3a, 3b); - a first power take-off and a second power take-off , each kinematically linked to said at least one drive member; - a regulating member kinematically linked to said first power take-off by means of a finishing gear train ; - a movable support holding said regulating member and arranged to pivot between two limit pivot angles with reference to a frame element ; - a pivot control device arranged to pivot said movable support between said limit pivot angles in a back-and-forth movement; - a control gear train connecting said pivot control device to said second power take-off , said pivot control gear train being distinct from said finishing gear train .
An oral care composition comprising: a) from 0.01 to 50% by weight of a calcium source; b) a water soluble phosphate source; c) a water soluble silicate source; and d) from 0.01 to 10% by weight of an amino acid, or its physiologically acceptable salt, or a mixture thereof; wherein the calcium source is calcium hydroxide, calcium oxide, calcium glycerophosphate, calcium lactate, calcium sulfate, calcium salts of citric acid, calcium chloride, calcium nitrate, calcium acetate, calcium gluconate, calcium formate, calcium malate, calcium propionate, calcium butyrate, calcium bicarbonate, monocalcium phosphate anhydrous, dicalcium phosphate anhydrous, tricalcium phosphate, octacalcium phosphate, calcium silicate, calcium carboxymethyl cellulose, calcium alginate, calcium carbonate or mixtures thereof; wherein the phosphate source is trisodium phosphate, monosodium dihydrogen phosphate, disodium hydrogen phosphate, ammonium phosphate, diammonium hydrogen phosphate, ammonium dihydrogen phosphate, tripotassium phosphate, monopotassium dihydrogen phosphate, dipotassium hydrogen phosphate or a mixture thereof; wherein the silicate source is sodium silicate, potassium silicate, tetraethylorthosilicate, tetraethylsilicate or mixtures thereof; and wherein the amino acid is selected from acidic amino acid, neutral amino acid or a mixture thereof. a) from 0.01 to 50% by weight of a calcium source; b) a water soluble phosphate source; c) a water soluble silicate source; and d) from 0.01 to 10% by weight of an amino acid, or its physiologically acceptable salt, or a mixture thereof;
A method for damping rotational oscillation about a vertical axis (Z) of a load-handling element of a lifting device by means of a damping controller having at least one controller parameter, wherein the load-handling element is connected to a suspension element of the lifting device by means of at least three holding elements and the length of at least one holding element between the load-handling element and the suspension element is adjusted by the damping controller by means of an actuator , which acts on the at least one holding element , wherein the at least one controller parameter is determined by means of a rotational oscillation model of the load-handling element as a function of the lifting height (l H ), wherein in order to damp the rotational oscillation of the load-handling element at any lifting height (l H ), the at least one controller parameter is adapted to said lifting height (l H ), characterized in that the load-handling element is excited to rotationally oscillate at a certain lifting height (l H ) of the load-handling element , that at the same time at least an actual angle of rotation (β ist ) of the load-handling element about the vertical axis and an actual actuator position (s ist ) are sensed and, by means thereof, model parameters of the rotational oscillation model of the load-handling element at the given lifting height (l H ) are identified by means of an identification method.
Soccer shoe , comprising: an upper comprising knitwear; and a sole which comprises cleats and is connected to the knitwear, wherein the knitwear is capable of coupling the sole to a foot of a wearer of the soccer shoe while the soccer shoe is being worn, wherein the knitwear is capable of extending above an ankle of the foot while it is worn, wherein the knitwear of the upper comprises a first and a second weft knitted or warp knitted layer, and wherein a reinforcement is arranged between the first and the second weft knit or warp knit layer in a shin area of the shoe upper. an upper comprising knitwear; and a sole which comprises cleats and is connected to the knitwear, wherein the knitwear is capable of coupling the sole to a foot of a wearer of the soccer shoe while the soccer shoe is being worn, wherein the knitwear is capable of extending above an ankle of the foot while it is worn, wherein the knitwear of the upper comprises a first and a second weft knitted or warp knitted layer, and wherein a reinforcement is arranged between the first and the second weft knit or warp knit layer in a shin area of the shoe upper.
An earpiece comprising: a body comprising an acoustic passage for conducting sound waves to an ear canal of a user of the earpiece; a retaining structure configured to engage with external structural features, including the concha and/or the anti-helix, of an ear of the user to hold the body in position; a movable joint structure to couple the body to the retaining structure, the movable joint structure being configured to allow angular motion of the body with respect to the retaining structure along a plane perpendicular to an axis of the angular motion; wherein the body is arranged to be inserted partially into the ear canal under the tragus, and adapted to rotate, with respect to the axis, towards an exterior opening of the ear canal of the user when the retaining structure engages with the concha and/or the anti-helix of the user. a body comprising an acoustic passage for conducting sound waves to an ear canal of a user of the earpiece; a retaining structure configured to engage with external structural features, including the concha and/or the anti-helix, of an ear of the user to hold the body in position; a movable joint structure to couple the body to the retaining structure, the movable joint structure being configured to allow angular motion of the body with respect to the retaining structure along a plane perpendicular to an axis of the angular motion; wherein the body is arranged to be inserted partially into the ear canal under the tragus, and adapted to rotate, with respect to the axis, towards an exterior opening of the ear canal of the user when the retaining structure engages with the concha and/or the anti-helix of the user.
A whipping agent which is free from palm based bulk edible oil and fat and free from palm based emulsifiers for use in the preparation of edible toppings comprising on a dry weight basis: - 25 to 75% by weight of a non-palm based edible oil or fat comprising at least 70% by weight of non-hardened coconut oil; - 5 to 30 % by weight of a non-palm based alpha tending emulsifier; - 1 to 15% by weight of a proteinaceous emulsifier; and - 25 to 60% by weight carbohydrates; wherein the non-palm based alpha tending emulsifier is a lactic acid ester of mono- and/or diglycerides of a non-palm based vegetable oil, wherein the fatty acids of said glycerides are saturated or unsaturated and wherein the fatty acids have 6 to 30 carbon atoms; and which non-palm based alpha tending emulsifier has been prepared from hydrogenated non-palm vegetable oils and comprises more than 75% by weight of the fatty acid residues of stearic acid (C18:0). - 25 to 75% by weight of a non-palm based edible oil or fat comprising at least 70% by weight of non-hardened coconut oil; - 5 to 30 % by weight of a non-palm based alpha tending emulsifier; - 1 to 15% by weight of a proteinaceous emulsifier; and - 25 to 60% by weight carbohydrates;
A method for producing an object, comprising: taking a file of layers of a 3D object; for each layer, printing a fluid selectively onto a sheet of substrate material, wherein the substrate material comprises fiberglass, high temperature glass fibers, boron fibers, or carbon fibers; flooding onto the substrate a powdered metal which adheres to the selectively printed fluid; removing excess powder; and heating and compressing a plurality of sheets in stacked registration to melt the powdered metal and fuse the layers of substrate. taking a file of layers of a 3D object; for each layer, printing a fluid selectively onto a sheet of substrate material, wherein the substrate material comprises fiberglass, high temperature glass fibers, boron fibers, or carbon fibers; flooding onto the substrate a powdered metal which adheres to the selectively printed fluid; removing excess powder; and heating and compressing a plurality of sheets in stacked registration to melt the powdered metal and fuse the layers of substrate.
Optical device , comprising: - an imaging system provided to generate a plurality of images being distributed over an imaging plane , - a micro-lens-array, MLA , wherein micro-lenses of the MLA are assigned to respective individual images of the plurality of images and are provided to form respective channels of light beams by projecting the respective individual images towards a projecting plane , - an optical expander being arranged between the MLA and the projecting plane , the optical expander comprising an input surface facing the MLA and at least two output surfaces facing the projecting plane , the optical expander being provided to fan out and direct the channels of light beams onto the projecting plane , such that - individual projections of the individual images are formed on the projection plane by the channels of light beams directed onto the projection plane , and - an overall projection is formed on the projection plane by superimposing the individual projections at least partially. - an imaging system provided to generate a plurality of images being distributed over an imaging plane , - a micro-lens-array, MLA , wherein micro-lenses of the MLA are assigned to respective individual images of the plurality of images and are provided to form respective channels of light beams by projecting the respective individual images towards a projecting plane , - an optical expander being arranged between the MLA and the projecting plane , the optical expander comprising an input surface facing the MLA and at least two output surfaces facing the projecting plane , the optical expander being provided to fan out and direct the channels of light beams onto the projecting plane , such that - individual projections of the individual images are formed on the projection plane by the channels of light beams directed onto the projection plane , and - an overall projection is formed on the projection plane by superimposing the individual projections at least partially.