mhurhangee/patent-ind-claim-en huggingface dataset:
A tape for label writer, wherein: (i) the tape for label writer has a layer structure comprising at least a process layer for conducting printing on a substrate layer , the substrate layer , an ink layer having various kinds of hues in order to enable the clear identification of print on the substrate layer , a barrier layer , and an adhesive layer in this order; (ii) the substrate layer is a synthetic resin film; and (iii) the ink layer comprises one adhesive resin being an acryl-based resin, and a pigment, characterized in that the acryl-based resin is an acrylic elastomer, wherein the barrier layer comprises a polyester film. (i) the tape for label writer has a layer structure comprising at least a process layer for conducting printing on a substrate layer , the substrate layer , an ink layer having various kinds of hues in order to enable the clear identification of print on the substrate layer , a barrier layer , and an adhesive layer in this order; (ii) the substrate layer is a synthetic resin film; and (iii) the ink layer comprises one adhesive resin being an acryl-based resin, and a pigment,
A process for producing tetrahydrocannabinol acetate (THC-O-acetate) from cannabis oil, which is an oil obtained from an extraction process conducted on raw cannabis plant material, the process comprising the steps: refluxing cannabis oil with acetic anhydride to form a crude product; distilling the crude product to form a partially refined product; removing impurities from the partially refined product using petroleum ether; and evaporating petroleum ether from the partially refined product characterized in that the refluxing is conducted at a temperature of 120-135 °C; the distilling is conducted at a temperature of 90-125 °C at a vacuum pressure of between 800 and 940 mbar, wherein the distilling step removes excess acetic anhydride from the crude product and leaves a precipitate of the partially refined product; after distilling the crude product and before removing impurities using petroleum ether, prior impurities are first removed from the partially refined product using a saline water solution wash with hexane, followed by evaporating the hexane from the partially refined product, wherein the precipitate of the partially refined product is dissolved in ethanol prior to the saline water solution wash with hexane and the removing of the impurities from the partially refined product using the petroleum ether is conducted using a saline water solution wash with the petroleum ether. refluxing cannabis oil with acetic anhydride to form a crude product; distilling the crude product to form a partially refined product; removing impurities from the partially refined product using petroleum ether; and evaporating petroleum ether from the partially refined product characterized in that the refluxing is conducted at a temperature of 120-135 °C; the distilling is conducted at a temperature of 90-125 °C at a vacuum pressure of between 800 and 940 mbar, wherein the distilling step removes excess acetic anhydride from the crude product and leaves a precipitate of the partially refined product; after distilling the crude product and before removing impurities using petroleum ether, prior impurities are first removed from the partially refined product using a saline water solution wash with hexane, followed by evaporating the hexane from the partially refined product, wherein the precipitate of the partially refined product is dissolved in ethanol prior to the saline water solution wash with hexane and the removing of the impurities from the partially refined product using the petroleum ether is conducted using a saline water solution wash with the petroleum ether.
A method of encoding a media stream provided from an encoding system to a remotely-located media player, the method comprising: encoding the media stream at the encoding system according to at least one encoding parameter; gathering data about a transmit buffer that receives the encoded media stream within the encoding system; processing the gathered data about the transmit buffer to determine an estimate of network capacity and a calculated encoder rate, wherein the estimate of network capacity corresponds to an estimated rate at which the network empties the transmit buffer, and the calculated encoder rate is based upon a rate of data entering the transmit buffer; adjusting the at least one encoding parameter during subsequent encoding as a function of at least one of the estimate of network capacity and the calculated encoder rate; and transmitting the encoded media stream to the remotely-located media player. encoding the media stream at the encoding system according to at least one encoding parameter; gathering data about a transmit buffer that receives the encoded media stream within the encoding system; processing the gathered data about the transmit buffer to determine an estimate of network capacity and a calculated encoder rate, wherein the estimate of network capacity corresponds to an estimated rate at which the network empties the transmit buffer, and the calculated encoder rate is based upon a rate of data entering the transmit buffer; adjusting the at least one encoding parameter during subsequent encoding as a function of at least one of the estimate of network capacity and the calculated encoder rate; and transmitting the encoded media stream to the remotely-located media player.
A cosmetic composition suitable for topical application, comprising: i) glycerin; ii) a lipid bilayer structurant with a glyceryl headgroup; iii) a penetration enhancer; and the penetration enhancer is selected from the group consisting of N-undecylenoyl-L-phenylalanine, 2-hexyldecanol, isopropyl lauroyl sarcosinate, linoleic acid, linolenic acid, and combinations thereof. iv) a skin care active. i) glycerin; ii) a lipid bilayer structurant with a glyceryl headgroup; iii) a penetration enhancer; and the penetration enhancer is selected from the group consisting of N-undecylenoyl-L-phenylalanine, 2-hexyldecanol, isopropyl lauroyl sarcosinate, linoleic acid, linolenic acid, and combinations thereof. iv) a skin care active.
Antenna system , having a first antenna structure and a second antenna structure , which are connected to an interface , wherein the antenna structures are suitable and designed for receiving and/or transmitting radio-frequency signals, wherein the first antenna structure and the second antenna structure are arranged in a first installation space , characterized in that a third antenna structure , which is arranged in a second installation space , is capacitively coupled to the first antenna structure , wherein the second antenna structure is not coupled to the third antenna structure .
Method for producing a rubber-plastic composite, comprising the following steps: a) shaping an unvulcanized elastomer, b) partially vulcanizing the shaped elastomer at a temperature of at least 140°C up to a degree of vulcanization in the range from 10% to 40%, c) cooling the partially vulcanized elastomer to a temperature of less than 100°C within less than 20 minutes, d) overmoulding the partially vulcanized elastomer with a plastic, and e) heat treating the partially vulcanized elastomer overmoulded with a plastic at a temperature in the range from 100°C to 170°C for a duration of from 5 minutes to 5 hours to complete the vulcanization and form a rubber-plastic composite. a) shaping an unvulcanized elastomer, b) partially vulcanizing the shaped elastomer at a temperature of at least 140°C up to a degree of vulcanization in the range from 10% to 40%, c) cooling the partially vulcanized elastomer to a temperature of less than 100°C within less than 20 minutes, d) overmoulding the partially vulcanized elastomer with a plastic, and e) heat treating the partially vulcanized elastomer overmoulded with a plastic at a temperature in the range from 100°C to 170°C for a duration of from 5 minutes to 5 hours to complete the vulcanization and form a rubber-plastic composite.
An electrical conductor assembly for use in a power distribution assembly comprising: a partially flexible electrical conductor including a main conductor portion comprising electrically conductive material, and at least one branch member comprising electrically conductive material extending laterally from the main conductor portion, the at least one branch member being flexible and configured for electrical connection to an electrical switching apparatus; a casing covering at least a portion of the electrical conductor, the casing comprising first and second casing members attached to each other, each casing member being identical in structure and comprises a body , a longitudinal channel formed in an inner surface of the body of the casing members and extending longitudinally along the casing members between opposite ends of the casing members, the longitudinal channel being sized and shaped to receive the main conductor portion of the electrical conductor, and a transverse channel formed in the inner surface of the body of the casing members and extending transversely through the casing members between opposite sides of the casing members, the transverse channel being sized and shaped to receive the branch member of the electrical conductor; and a spring member mounted to the casing and configured to apply a compressive force to the electrical conductor. a partially flexible electrical conductor including a main conductor portion comprising electrically conductive material, and at least one branch member comprising electrically conductive material extending laterally from the main conductor portion, the at least one branch member being flexible and configured for electrical connection to an electrical switching apparatus; a casing covering at least a portion of the electrical conductor, the casing comprising first and second casing members attached to each other, each casing member being identical in structure and comprises a body , a longitudinal channel formed in an inner surface of the body of the casing members and extending longitudinally along the casing members between opposite ends of the casing members, the longitudinal channel being sized and shaped to receive the main conductor portion of the electrical conductor, and a transverse channel formed in the inner surface of the body of the casing members and extending transversely through the casing members between opposite sides of the casing members, the transverse channel being sized and shaped to receive the branch member of the electrical conductor; and a spring member mounted to the casing and configured to apply a compressive force to the electrical conductor.
A method of fabricating a semiconductor structure comprising a buried activated p-(Al,In)GaN layer , comprising: (a) exposing a magnesium-doped p-(Al,In)GaN layer to a gaseous mixture comprising H 2 , NH 3 , or a combination thereof, wherein the gaseous mixture has a partial pressure of H 2 less than 760 Torr, to provide an exposed magnesium-doped p-(Al,In)GaN layer ; and (b) growing an n-(Al,In)GaN layer on the exposed magnesium-doped p-(Al,In)GaN layer in an environment comprising H 2 , NH 3 , or a combination thereof, by remote plasma-enhanced chemical vapor deposition, in an environment wherein the partial pressure of H 2 is greater than the partial pressure of N 2 , to provide a semiconductor structure comprising a buried activated p-(Al,In)GaN layer . (a) exposing a magnesium-doped p-(Al,In)GaN layer to a gaseous mixture comprising H 2 , NH 3 , or a combination thereof, wherein the gaseous mixture has a partial pressure of H 2 less than 760 Torr, to provide an exposed magnesium-doped p-(Al,In)GaN layer ; and (b) growing an n-(Al,In)GaN layer on the exposed magnesium-doped p-(Al,In)GaN layer in an environment comprising H 2 , NH 3 , or a combination thereof, by remote plasma-enhanced chemical vapor deposition, in an environment wherein the partial pressure of H 2 is greater than the partial pressure of N 2 , to provide a semiconductor structure comprising a buried activated p-(Al,In)GaN layer .
A moving blade adjusting structure for a hair clipper, comprising a blade assembly, a blade adjusting push rod , an inner container assembly , a knob assembly, a blade cover and a body housing ; the blade adjusting push rod being slidably coupled to the inner container assembly , the inner container assembly being fitted in the body housing , the knob assembly being arranged on a stud of the inner container assembly , and the blade adjusting push rod being movably coupled to the knob assembly; and the blade assembly being arranged in the blade cover , the blade assembly being movably coupled to the blade adjusting push rod , and the blade cover being fixedly coupled to the body housing , characterized in that the knob assembly comprises a knob pressing block , a knob , a metal elastic sheet and a cam , the cam is arranged on the inner container assembly through the stud on the inner container assembly , and an end face of the cam is engaged with the blade adjusting push rod in a movement direction of the blade adjusting push rod ; and wherein the metal elastic sheet is coupled to the knob in a snapped manner, the knob is concentrically assembled with the cam through the stud on the inner container assembly , and the knob pressing block is concentrically assembled with the knob through the stud of the inner container assembly . the blade adjusting push rod being slidably coupled to the inner container assembly , the inner container assembly being fitted in the body housing , the knob assembly being arranged on a stud of the inner container assembly , and the blade adjusting push rod being movably coupled to the knob assembly; and the blade assembly being arranged in the blade cover , the blade assembly being movably coupled to the blade adjusting push rod , and the blade cover being fixedly coupled to the body housing , characterized in that the knob assembly comprises a knob pressing block , a knob , a metal elastic sheet and a cam , the cam is arranged on the inner container assembly through the stud on the inner container assembly , and an end face of the cam is engaged with the blade adjusting push rod in a movement direction of the blade adjusting push rod ; and wherein the metal elastic sheet is coupled to the knob in a snapped manner, the knob is concentrically assembled with the cam through the stud on the inner container assembly , and the knob pressing block is concentrically assembled with the knob through the stud of the inner container assembly .
A system, comprising: a computer; a memory in the computer; a database stored in the memory, the database including: a plurality of checks organized into a plurality of categories, wherein the plurality of checks determine if an electronic file meets a standard for the expected file format; and for each of the plurality of categories, a weight assigned to the category, including default weights assigned to the plurality of categories; a receiver to receive the electronic file in the file format; an analyser to analyse a first corpus of files with known non-conformities to produce a first result and to analyse a second corpus of safe files to produce a second result and to analyse the electronic file using the plurality of checks in the database; a statistical analyser to statistically review the first result and the second result and to adjust the default weights assigned to the plurality of categories so that a first calculated risk assessment for the first corpus of files is higher than a second calculated risk assessment for the second corpus of files; and a threat calculator to calculate a risk assessment for the electronic file using a result from the analyser and the weights assigned to the plurality of categories; wherein when the risk assessment indicates that the electronic file is likely a threat, the electronic file can be detonated in an electronic sandbox . a computer; a memory in the computer; a database stored in the memory, the database including: a plurality of checks organized into a plurality of categories, wherein the plurality of checks determine if an electronic file meets a standard for the expected file format; and for each of the plurality of categories, a weight assigned to the category, including default weights assigned to the plurality of categories; a plurality of checks organized into a plurality of categories, wherein the plurality of checks determine if an electronic file meets a standard for the expected file format; and for each of the plurality of categories, a weight assigned to the category, including default weights assigned to the plurality of categories; a receiver to receive the electronic file in the file format; an analyser to analyse a first corpus of files with known non-conformities to produce a first result and to analyse a second corpus of safe files to produce a second result and to analyse the electronic file using the plurality of checks in the database; a statistical analyser to statistically review the first result and the second result and to adjust the default weights assigned to the plurality of categories so that a first calculated risk assessment for the first corpus of files is higher than a second calculated risk assessment for the second corpus of files; and a threat calculator to calculate a risk assessment for the electronic file using a result from the analyser and the weights assigned to the plurality of categories; wherein when the risk assessment indicates that the electronic file is likely a threat, the electronic file can be detonated in an electronic sandbox .
A welding method comprising: applying energy to an interface where a metal glass formed with a nanocrystalline metal or an amorphous metal and a crystalline metal having a crystalline structure make contact with each other or to said metal glass near the interface; forming a molten layer by heating and melting said metal glass; and joining said metal glass to said crystalline metal, wherein said molten layer after said metal glass and said crystalline metal have been joined together has a glass formation ability; said metal glass has a glass formation ability in which a nose time of a TTT curve when a solid of said metal glass is reheated is 0.2 seconds or more; characterized in that said metal glass and said crystalline metal are such that in a temperature range below the melting point of the crystalline metal of 500k or more or 48% or more of the melting point of the metal glass, a spread factor of said crystalline metal and said molten metal glass is 25% or more; wherein the spread factor is determined by the following steps to , a metal glass is placed on a crystalline metal, a height H of said metal glass, when the metal glass is spherical, is calculated by the following formula 2 and formula 3 using a mass M of said metal glass and a density d of said metal glass, said metal glass is melted, a height D of said molten metal glass is measured, said spread factor is calculated by the following formula 1 using the height H and the height D, Spread factor % = H − D / H × 100 , H = 1.24 × V 1 / 3 , V = M / d . wherein said molten layer after said metal glass and said crystalline metal have been joined together has a glass formation ability; said metal glass has a glass formation ability in which a nose time of a TTT curve when a solid of said metal glass is reheated is 0.2 seconds or more; characterized in that said metal glass and said crystalline metal are such that in a temperature range below the melting point of the crystalline metal of 500k or more or 48% or more of the melting point of the metal glass, a spread factor of said crystalline metal and said molten metal glass is 25% or more; wherein the spread factor is determined by the following steps to , a metal glass is placed on a crystalline metal, a height H of said metal glass, when the metal glass is spherical, is calculated by the following formula 2 and formula 3 using a mass M of said metal glass and a density d of said metal glass, said metal glass is melted, a height D of said molten metal glass is measured, said spread factor is calculated by the following formula 1 using the height H and the height D, Spread factor % = H − D / H × 100 , H = 1.24 × V 1 / 3 , V = M / d . a metal glass is placed on a crystalline metal, a height H of said metal glass, when the metal glass is spherical, is calculated by the following formula 2 and formula 3 using a mass M of said metal glass and a density d of said metal glass, said metal glass is melted, a height D of said molten metal glass is measured, said spread factor is calculated by the following formula 1 using the height H and the height D, Spread factor % = H − D / H × 100 , H = 1.24 × V 1 / 3 , V = M / d .
A vehicle comprising a foldable attachment system arranged for holding objects within an interior vehicle luggage compartment , wherein the attachment system comprises an attachment post , an elongated guide member , and a hook structure , wherein the hook structure is connected to the attachment post , wherein a first end of the attachment post is slidingly and hingedly connected to the elongated guide member , and the elongated guide member is connected to a first vehicle interior structure , wherein the attachment post and the hook structure are movably arranged in relation to the elongated guide member between a storage position (P ST ) and an in-use position (P IU ), characterized in that the system further comprises a movable cargo floor structure , wherein the attachment post and the hook structure in the storage position (P ST ) are arranged in a storage compartment below the movable cargo floor structure . wherein the attachment post and the hook structure are movably arranged in relation to the elongated guide member between a storage position (P ST ) and an in-use position (P IU ), characterized in that the system further comprises a movable cargo floor structure , wherein the attachment post and the hook structure in the storage position (P ST ) are arranged in a storage compartment below the movable cargo floor structure .
Non therapeutic use of a composition comprising a mono- or co-culture of Methylobacterium and an agriculturally acceptable excipient and/or an agriculturally acceptable adjuvant to inhibit growth of a plant pathogenic fungus, wherein: the Methylobacterium is NLS0066 (NRRL B-50940), NLS0089 (NRRL B-50933), a combination of NLS0066 and NLS0017 (NRRL B-50931), a combination of NLS0089 and NLS0020 (NRRL B-50930), a combination of NLS0066 and NLS0020, or a derivative thereof: and wherein the plant pathogenic fungus is a Fusarium sp., a Rhizoctonia sp., Sclerotinia sp., or a Septoria sp..