mhurhangee/patent-ind-claim-en huggingface dataset:
A method for predicting late onset of sexual maturation in rainbow trout ( Oncorhynchus mykiss ) , the method comprising: determining the presence of at least one allele conferring late onset of sexual maturation ("late maturation allele") within the genome of said rainbow trout; wherein the at least one late maturation allele is an allele of at least one single nucleotide polymorphism (SNP), the at least one SNP being selected from the SNPs listed in Table 1. determining the presence of at least one allele conferring late onset of sexual maturation ("late maturation allele") within the genome of said rainbow trout; wherein the at least one late maturation allele is an allele of at least one single nucleotide polymorphism (SNP), the at least one SNP being selected from the SNPs listed in Table 1.
A method of production of vitamin-D 2 using ergosterol as a starting material, or production of vitamin-D 3 using 7-dehydrocholesterol as the starting material, comprising: (a) irradiating the starting material in a solution comprising an organic base selected from the group consisting of an aliphatic amine or an aromatic amine or an inorganic hydroxide base selected from magnesium carbonate hydroxide, ammonium hydroxide, lithium hydroxide, potassium hydroxide, sodium hydroxide, magnesium hydroxide, calcium hydroxide, magnesium-alumina hydroxide with ultraviolet light to obtain a product containing pre-vitamin-D 2 or pre-vitamin-D 3 , and (b) heating the product to convert the pre-vitamin-D 2 or pre-vitamin-D 3 to vitamin D 2 or vitamin D 3 . (a) irradiating the starting material in a solution comprising an organic base selected from the group consisting of an aliphatic amine or an aromatic amine or an inorganic hydroxide base selected from magnesium carbonate hydroxide, ammonium hydroxide, lithium hydroxide, potassium hydroxide, sodium hydroxide, magnesium hydroxide, calcium hydroxide, magnesium-alumina hydroxide with ultraviolet light to obtain a product containing pre-vitamin-D 2 or pre-vitamin-D 3 , and (b) heating the product to convert the pre-vitamin-D 2 or pre-vitamin-D 3 to vitamin D 2 or vitamin D 3 .
An electroplating rack for holding a plurality of sliding bearing shells whilst a coating is electroplated onto their concave inner surfaces, comprising an end bracket , wherein the end bracket comprises a liquid supply conduit for receiving a flow of liquid into the plating rack along the concave inner faces of the bearing shells , characterized in that , the end bracket comprises an internal face , and the liquid supply conduit has an internal port that is level with the internal face .
A molded package, comprising: a molded resin having a recess for accommodating a light emitting element ; a ceramic substrate disposed in a bottom of the recess , the ceramic substrate having one surface exposed from the bottom of the recess and the other surface exposed from a rear surface of the molded resin ; and a lead disposed at a lower part of the molded resin , the light emitting element being mounted on the one surface of the ceramic substrate , wherein the lead includes a first lead and a second lead which are disposed so as to put the ceramic substrate therebetween in a first direction, characterized in that at least one of the first lead and second lead being in contact with each of a pair of opposed side surfaces of the ceramic substrate in a second direction perpendicular to the first direction to hold the ceramic substrate between parts thereof. a molded resin having a recess for accommodating a light emitting element ; a ceramic substrate disposed in a bottom of the recess , the ceramic substrate having one surface exposed from the bottom of the recess and the other surface exposed from a rear surface of the molded resin ; and a lead disposed at a lower part of the molded resin , the light emitting element being mounted on the one surface of the ceramic substrate , wherein the lead includes a first lead and a second lead which are disposed so as to put the ceramic substrate therebetween in a first direction, characterized in that at least one of the first lead and second lead being in contact with each of a pair of opposed side surfaces of the ceramic substrate in a second direction perpendicular to the first direction to hold the ceramic substrate between parts thereof.
A composition for use in treating neurodegenerative diseases, wherein the neurodegenerative disease is caused by excessive build up of β-amyloid protein (Aβ) in cells, the composition comprising an effective amount of butylidenephthalide (Bdph), wherein the Bdph is coated with a polymeric material, wherein the polymeric material is F127 polymer.
A condenser with a tube fin block and collecting tubes arranged on both sides of the tube fin block , wherein the tubes of the tube fin block grip through openings of the collecting tubes and are in fluid connection with the interior of the collecting tubes , wherein an extruded collector is arranged in parallel to at least one of the collecting tubes and connected to the collecting tube , the collector being fluidly connected to the collecting tube by means of overflow openings, wherein a thermal separation is provided between the collector and the collecting tube , wherein the collector has a lateral projection in which overflow openings are arranged, wherein a wall region of the collecting tube is integrally formed with the collector , with the lateral protrusion arranged therebetween, wherein the thermal separation in the lateral protrusion is formed by at least one recess , characterised in that a plurality of recesses is arranged above the region of the overflow openings which extend up to a distant axial end of the collector , wherein a plurality of recesses is arranged adjacent to one another in a row or in several rows and is respectively separated from one another by webs , wherein the recesses have a longitudinal contour.
A floor-to-floor transport system for transporting articles (M) between different floors by using an upward path (Va) and a downward path (Vb) in a vertical transporter (V) that revolves in one direction, the articles (M) being transport containers for semiconductor wafers or reticles, the floor-to-floor transport system comprising on one floor: a loading transport line configured to transport to the vertical transporter (V) an article (M) to be transported to another floor; a first loading opening through which the article (M) is loaded into the upward path (Va) in the vertical transporter (V); a second loading opening through which the article (M) is loaded into the downward path (Vb) in the vertical transporter (V); a transferer (50, 50A-D) configured to selectively transfer to the first loading opening or the second loading opening an article (M) transported by the loading transport line ; and a controller configured to control the transferer (50, 50A-D) depending on a destination of the article (M). a loading transport line configured to transport to the vertical transporter (V) an article (M) to be transported to another floor; a first loading opening through which the article (M) is loaded into the upward path (Va) in the vertical transporter (V); a second loading opening through which the article (M) is loaded into the downward path (Vb) in the vertical transporter (V); a transferer (50, 50A-D) configured to selectively transfer to the first loading opening or the second loading opening an article (M) transported by the loading transport line ; and
A telescopic ladder, comprising a left column and a right column , which are symmetrical to each other and arranged longitudinally, and a plurality of steps which are arranged transversely, each of the columns being formed by socketing a smaller tube in a bigger tube, one of the steps being arranged between upper ends of two tubes of a same diameter, an instep-operable folding switch is provided below a first step on the bottom of the ladder; the instep-operable folding switch comprises an operating lever on which an operating gasket is fixed; an upper end of one transmission bar comes into contact with an end of a pin switch for a second step, and the other end of the pin switch is hinged to a middle portion of a pin via a round pin ; a front end of the pin is fitted in positioning holes of two columns corresponding to the second step, and a rear end of the pin is resisted against a return spring ; and the return spring is located within a pin connector which is fixed within the second step; the ladder is characterized in that each of two ends of the operating lever comes into contact with a lower end of the transmission bar and the ladder further comprises a slow-fall mechanism which is arranged between adjacent column tubes; the slow-fall mechanism comprises one upper seal disc arranged within a tube, the upper seal disc being connected to the tube in a sealed manner; a lower seal disc , which is connected to a lower adjacent tube in a sealed manner, is provided within the lower adjacent tube; and air vents are formed on the lower seal disc.
A main frame configured for a plough comprising one or more plough bodies connectable to the main frame , the main frame being able to support a plurality of ground engaging tools, the main frame extending between a first end that is connectable to a vehicle and an opposite, second end , the main frame comprising at least one side wall extending between the first and second end of the main frame , the side wall comprising one or more openings such that the main frame exhibits varying strength between its first and second ends; wherein parts of the main frame that are subject to higher loads, when in use, exhibit higher strength than parts of the main frame that are subject to lower loads, when in use, wherein the main frame comprises a plurality of reinforcement members arranged between its first end and its second end , at least on parts of the main frame that are subject to higher loads, when in use, wherein the main frame comprises at least two side walls extending between the first and second end of the main frame , the reinforcement members being reinforcement struts extending between the at least two side walls of the main frame . the main frame exhibits varying strength between its first and second ends; wherein parts of the main frame that are subject to higher loads, when in use, exhibit higher strength than parts of the main frame that are subject to lower loads, when in use, wherein the main frame comprises a plurality of reinforcement members arranged between its first end and its second end , at least on parts of the main frame that are subject to higher loads, when in use, wherein the main frame comprises at least two side walls extending between the first and second end of the main frame , the reinforcement members being reinforcement struts extending between the at least two side walls of the main frame .
A depth data measuring head, including: a projection device , configured to project strip-coded structured light in a scanning manner to the capture area; an image sensor, configured to turn on pixel column for imaging column by column, and photograph the capture area to obtain an image frame illuminated by the structured light, wherein the image sensor comprises a first image sensor (320_1) and a second image sensor (320_2) having a predetermined relative positional relationship, configured to capture the capture area respectively to obtain the first and second two-dimensional image frames illuminated by the structured light, wherein in the first and the second image sensors, each pixel in the image sensor includes a plurality of structured light image frame storage units , or each pixel column or each group of pixel columns includes N pixel storage sub-columns, where N is an integer greater than or equal to 2, and each structured light image frame storage unit or pixel storage sub-column is respectively used to image a different pattern of strip-coded structured light sequentially projected by the projection device to generate a set of image frames of different patterns, wherein the set of image frames is used as a whole to perform one depth data calculation; and a synchronization device configured to synchronously turn on the pixel columns in the strip direction corresponding to the current scanning position in the first and the second image sensors for imaging, based on the scanning position of the projection device. a projection device , configured to project strip-coded structured light in a scanning manner to the capture area; an image sensor, configured to turn on pixel column for imaging column by column, and photograph the capture area to obtain an image frame illuminated by the structured light, wherein the image sensor comprises a first image sensor (320_1) and a second image sensor (320_2) having a predetermined relative positional relationship, configured to capture the capture area respectively to obtain the first and second two-dimensional image frames illuminated by the structured light, wherein in the first and the second image sensors, each pixel in the image sensor includes a plurality of structured light image frame storage units , or each pixel column or each group of pixel columns includes N pixel storage sub-columns, where N is an integer greater than or equal to 2, and each structured light image frame storage unit or pixel storage sub-column is respectively used to image a different pattern of strip-coded structured light sequentially projected by the projection device to generate a set of image frames of different patterns, wherein the set of image frames is used as a whole to perform one depth data calculation; and a synchronization device configured to synchronously turn on the pixel columns in the strip direction corresponding to the current scanning position in the first and the second image sensors for imaging, based on the scanning position of the projection device.
A method for manufacturing a direct thermal linerless label web , the direct thermal linerless label web comprising a face having a multilayer structure comprising at least three layers, the face comprising - a base layer , - a direct thermal printable coating , and - an intermediate layer disposed between the base layer and the direct thermal printable coating, wherein - the intermediate layer has a grammage in a range between 0.9 g/m 2 and 7 g/m 2 , - the intermediate layer comprises ▪ a binder, and ▪ at least one mineral pigment and/or a non-mineral pigment, - total amount of mineral pigments in the intermediate layer is equal to or less than 4 g/m 2 , preferably equal to or less than 3 g/m 2 , and - a mineral pigment content of the intermediate layer is less than 85 wt.%, preferably equal to or less than 75 wt.%, calculated from total dry weight of the intermediate layer, - a total mineral content of the direct thermal linerless label web is in a range between 0 and 20 wt.%, calculated from total dry weight of the direct thermal linerless label web, and wherein the method comprises - supplying the face , - applying a water-based acrylic adhesive coating , and - thermally drying the adhesive coating into a pressure sensitive adhesive coating , wherein - the water-based acrylic adhesive coating is applied on to the face, or - the water-based acrylic adhesive coating is applied on to a carrier material, and the method further comprises: - transferring the pressure sensitive adhesive coating from the carrier material on to the face. - a base layer , - a direct thermal printable coating , and - an intermediate layer disposed between the base layer and the direct thermal printable coating, - the intermediate layer has a grammage in a range between 0.9 g/m 2 and 7 g/m 2 , - the intermediate layer comprises ▪ a binder, and ▪ at least one mineral pigment and/or a non-mineral pigment, ▪ a binder, and ▪ at least one mineral pigment and/or a non-mineral pigment, - total amount of mineral pigments in the intermediate layer is equal to or less than 4 g/m 2 , preferably equal to or less than 3 g/m 2 , and - a mineral pigment content of the intermediate layer is less than 85 wt.%, preferably equal to or less than 75 wt.%, calculated from total dry weight of the intermediate layer, - a total mineral content of the direct thermal linerless label web is in a range between 0 and 20 wt.%, calculated from total dry weight of the direct thermal linerless label web, and - supplying the face , - applying a water-based acrylic adhesive coating , and - thermally drying the adhesive coating into a pressure sensitive adhesive coating , - the water-based acrylic adhesive coating is applied on to the face, or - the water-based acrylic adhesive coating is applied on to a carrier material, and the method further comprises: - transferring the pressure sensitive adhesive coating from the carrier material on to the face.
A transformed oleaginous cell, comprising a first genetic modification, wherein said first genetic modification encodes at least one copy of diacylglycerol acyltransferase 1 (DGA1) native to the oleaginous cell or from a different species, wherein the genetic modification ensures overexpression of said DGA1; and a second genetic modification, wherein said second genetic modification decreases the activity of a triacylglycerol lipase in the oleaginous cell, wherein said genetic modification is a triacylglycerol lipase knockout mutation, wherein said triacylglycerol lipase is TGL3. a first genetic modification, wherein said first genetic modification encodes at least one copy of diacylglycerol acyltransferase 1 (DGA1) native to the oleaginous cell or from a different species, wherein the genetic modification ensures overexpression of said DGA1; and a second genetic modification, wherein said second genetic modification decreases the activity of a triacylglycerol lipase in the oleaginous cell, wherein said genetic modification is a triacylglycerol lipase knockout mutation, wherein said triacylglycerol lipase is TGL3.
A valve with a housing , which delimits an interior space , a first connection , a second connection , a passage , which connects the first connection to the second connection in a fluid-conducting manner, a first closing member and a second closing member , which closing members are accommodated in the interior space and surround an intermediate space , which is connected to a third connection , and an adjusting device , which is configured to bring the first closing member into sealing contact with a first valve seat formed in the passage and to bring the second closing member into sealing contact with a second valve seat formed in the passage in a closed position and to release the first and second closing members from the first and second valve seats in an open position, wherein the first closing member is accommodated in the second closing member in a sealing manner, characterized in that the second closing member is cup-shaped, wherein the intermediate space is located inside it, wherein the first closing member can be accommodated in the second closing member such that the intermediate space is sealed with respect to the interior space , and in that the adjusting device is configured to form a gap (S) between the first and second closing members that connects the intermediate space to the interior space when at the same time the first and second closing members are lifted from the first and second valve seats by the adjusting device .
A computer-implemented method for controlling agricultural machinery, wherein the agricultural machinery comprises an agricultural work vehicle with an engine for moving the agricultural work vehicle across a field, and an agricultural implement connected to the agricultural work vehicle and comprising at least one ground engaging tool , wherein the method comprises: receiving an engine operating parameter representative of an engine output of the engine; comparing the engine operating parameter to a predetermined first threshold; and determining an implement-control-signal, based on a result of the comparing step, for transferring the at least one ground engaging tool into an engine recovery state for reducing a work vehicle load, characterised in that the agricultural implement comprises a stone trip mechanism for biasing the at least one ground engaging tool into the soil at a predetermined bias force, the engine operating parameter being an engine-output-torque, and wherein the method further comprises producing an implement-control-signal comprising instructions for reducing the bias force if a difference between the engine operating parameter and the first threshold is below a predetermined stone-trip-bias-threshold. receiving an engine operating parameter representative of an engine output of the engine; comparing the engine operating parameter to a predetermined first threshold; and determining an implement-control-signal, based on a result of the comparing step, for transferring the at least one ground engaging tool into an engine recovery state for reducing a work vehicle load,
A system for treating a tissue site comprising: a manifold adapted to deliver negative pressure to the tissue site and having a first firmness factor, wherein the manifold is a foam; a cover adapted to form a sealed space over the manifold and the tissue site for receiving a negative pressure from a negative-pressure source ; and a tissue interface adapted to be positioned between the manifold and the tissue site, the tissue interface having a second firmness factor that is greater than the first firmness factor and a plurality of holes separated from each other by walls , wherein the tissue interface is a foam, and wherein firmness factor is a ratio of the density of a foam in a compressed state to the density of the same foam in an uncompressed state. a manifold adapted to deliver negative pressure to the tissue site and having a first firmness factor, wherein the manifold is a foam; a cover adapted to form a sealed space over the manifold and the tissue site for receiving a negative pressure from a negative-pressure source ; and a tissue interface adapted to be positioned between the manifold and the tissue site, the tissue interface having a second firmness factor that is greater than the first firmness factor and a plurality of holes separated from each other by walls , wherein the tissue interface is a foam, and wherein firmness factor is a ratio of the density of a foam in a compressed state to the density of the same foam in an uncompressed state.