mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid detergent composition comprising a surfactant system, encapsulates, and a cationic deposition aid polymer, wherein the detergent composition comprises from 10% to 50%, by weight of the detergent composition, of the surfactant system, wherein the surfactant system comprises anionic surfactant and nonionic surfactant present in a weight ratio of from 1:1 to 4.5:1, wherein the anionic surfactant comprises an anionic sulphate surfactant and an anionic sulphonate surfactant in a weight ratio of from 1:1 to 20:1, wherein the detergent composition comprises from 0.1% to 5%, by weight of the detergent composition, of the encapsulates, wherein the encapsulates comprise a core and a wall at least partially surrounding the core, wherein the core comprises a benefit agent, wherein the benefit agent comprises perfume raw materials, wherein the cationic deposition aid polymer is a non-polysaccharide polymer, wherein the cationic deposition aid polymer is a cationic polymer selected from the group consisting of acrylamide/DADMAS, acrylamide/DADMAS/acrylic acid, acrylamide/APTAS, acrylamide/MAPTAS, acrylamide/QVi, polyvinyl formamide/DADMAS, poly(DADMAS), acrylamide/MAPTAS/acrylic acid, acrylamide/APTAS/acrylic acid, and mixtures thereof, and is characterized by a weight average molecular weight of from 5 to 200 kDaltons, and wherein the liquid detergent composition contains, if any, no more than 0.01% by weight of a silicone. wherein the detergent composition comprises from 10% to 50%, by weight of the detergent composition, of the surfactant system, wherein the surfactant system comprises anionic surfactant and nonionic surfactant present in a weight ratio of from 1:1 to 4.5:1, wherein the anionic surfactant comprises an anionic sulphate surfactant and an anionic sulphonate surfactant in a weight ratio of from 1:1 to 20:1, wherein the detergent composition comprises from 0.1% to 5%, by weight of the detergent composition, of the encapsulates, wherein the encapsulates comprise a core and a wall at least partially surrounding the core, wherein the core comprises a benefit agent, wherein the benefit agent comprises perfume raw materials, wherein the cationic deposition aid polymer is a non-polysaccharide polymer, wherein the cationic deposition aid polymer is a cationic polymer selected from the group consisting of acrylamide/DADMAS, acrylamide/DADMAS/acrylic acid, acrylamide/APTAS, acrylamide/MAPTAS, acrylamide/QVi, polyvinyl formamide/DADMAS, poly(DADMAS), acrylamide/MAPTAS/acrylic acid, acrylamide/APTAS/acrylic acid, and mixtures thereof, and is characterized by a weight average molecular weight of from 5 to 200 kDaltons, and wherein the liquid detergent composition contains, if any, no more than 0.01% by weight of a silicone.
A method for at least partially filling with thermally insulating material a cavity of a thermal break profile, said method comprising: a) forming a thermally expandable profile comprising a thermally expandable composition suitable for expanding under the pressure exerted by an expansion gas produced within said thermally expandable composition at a first temperature T E , said thermally expandable profile having a cross-section smaller than the cross-section of said cavity to be at least partially filled; b) inserting said thermally expandable profile in said cavity to be at least partially filled; and c) subjecting said thermal break profile to a heat treatment at a second temperature T V higher than or equal to said first temperature T E , so that said expansion gas is produced within said thermally expandable composition and exerts a pressure inducing said thermally expandable profile to expand and at least partially fill said cavity , wherein said step a) comprises providing said thermally expandable profile with a control layer surrounding said thermally expandable composition and suitable for controlling the expansion of said thermally expandable composition during said heat treatment.. a) forming a thermally expandable profile comprising a thermally expandable composition suitable for expanding under the pressure exerted by an expansion gas produced within said thermally expandable composition at a first temperature T E , said thermally expandable profile having a cross-section smaller than the cross-section of said cavity to be at least partially filled; b) inserting said thermally expandable profile in said cavity to be at least partially filled; and c) subjecting said thermal break profile to a heat treatment at a second temperature T V higher than or equal to said first temperature T E , so that said expansion gas is produced within said thermally expandable composition and exerts a pressure inducing said thermally expandable profile to expand and at least partially fill said cavity ,
A coated optical semiconductor element, in an order in a thickness direction comprising: an optical semiconductor element comprising an upper surface , a lower surface , and a side surface ; a phosphor layer arranged on and covering the upper surface and the side surface of the optical semiconductor element , the phosphor layer comprising an upper surface, a lower surface, and a side surface; a light diffusion layer comprising a resin, light-diffusing particles dispersed in the resin, a light diffusion layer upper part , and a light diffusion layer side part , the light diffusion layer covering the upper surface of the phosphor layer and the side surface of the phosphor layer; and a white layer comprising white particles, the white layer covering the upper surface of the light diffusion layer ; wherein the optical semiconductor element has a planar shape along a surface direction and a rectangular shape in a plan view; wherein the upper surface of the optical semiconductor element is a light-emitting surface for emitting light upward, and the upper surface of the optical semiconductor element is a flat shape; wherein the phosphor layer has a rectangular shape in a plan view, and covers the optical semiconductor element in a direction projected in the vertical direction, wherein the coated optical semiconductor element has a white appearance at the time of non-light emission, and wherein the light-diffusing particles and the resin have an absolute value of the refractive index difference larger than 0.04. an optical semiconductor element comprising an upper surface , a lower surface , and a side surface ; a phosphor layer arranged on and covering the upper surface and the side surface of the optical semiconductor element , the phosphor layer comprising an upper surface, a lower surface, and a side surface; a light diffusion layer comprising a resin, light-diffusing particles dispersed in the resin, a light diffusion layer upper part , and a light diffusion layer side part , the light diffusion layer covering the upper surface of the phosphor layer and the side surface of the phosphor layer; and a white layer comprising white particles, the white layer covering the upper surface of the light diffusion layer ; wherein the optical semiconductor element has a planar shape along a surface direction and a rectangular shape in a plan view; wherein the upper surface of the optical semiconductor element is a light-emitting surface for emitting light upward, and the upper surface of the optical semiconductor element is a flat shape; wherein the phosphor layer has a rectangular shape in a plan view, and covers the optical semiconductor element in a direction projected in the vertical direction, wherein the coated optical semiconductor element has a white appearance at the time of non-light emission, and wherein the light-diffusing particles and the resin have an absolute value of the refractive index difference larger than 0.04.
Apparatus to feed bars comprising a feed device suitable to feed a plurality of bars to a transfer device , and further comprising said transfer device configured to transfer said bars toward a delivery zone , wherein said transfer device comprises at least a transfer disc keyed on a rotation shaft selectively rotatable around an axis of rotation (Z), on the periphery of said transfer disc at least one gripping and holding element is installed, provided with at least a housing seating , said gripping and holding element being configured to take at least one bar from said feed device in order to hold said bar in said housing seating and to transfer said bar by means of rotation around said axis of rotation (Z), toward said delivery zone , wherein a magnetic element is associated or incorporated in correspondence with each of said housing seating , and wherein the apparatus comprises a plurality of support members with a substantially discoidal shape, keyed on said rotation shaft and longitudinally distanced along the extension of the rotation shaft , said support members being laterally disposed with respect to said transfer device , and selectively rotatable around said axis of rotation (Z), said support members being provided with at least a support seating disposed in an angular position substantially mating with that of said housing seating of the gripping and holding element in order to support each bar during its transfer, said axis of rotation (Z) being located, during use, substantially parallel to the longitudinal development of said bars , wherein said delivery zone comprises at least a support element configured to receive said bar and a positioning element (34; 44) suitable to hold said bar in position, wherein said positioning element (34; 44) comprises a magnet for holding said bar , and further wherein the apparatus comprising a movement member configured to transfer said at least one bar from said delivery zone toward an operating machine located downstream.
A method for controlling a first user equipment, UE , to access (S601) a communications network of a high-speed moving vehicle, comprising: determining (S602), by a core network control plane node device , that the first UE accessing the communications network of the high-speed moving vehicle is a first-type UE, wherein the first-type UE is a UE used by a user taking the high-speed moving vehicle; allocating, by the core network control plane node device , a first temporary identifier to the first UE , wherein the first temporary identifier comprises a first sequence, and the first sequence is used to indicate that the first UE is a first-type UE; and sending (S603), by the core network control plane node device , the first temporary identifier to the first UE , wherein when the first UE accesses (S604) a public network, the first sequence is used to instruct (S605) a base station to transfer the first UE to the communications network of the high-speed moving vehicle; wherein the first UE generates a radio resource control, RRC, setup request message that carries the first sequence to access a public network, sends the RRC setup request message to the base station of the public network, the base station generates an RRC connection release message according to the first sequence, sends the RRC connection release message to the first UE , and instructs the first UE to access the communications network of the high-speed moving vehicle. determining (S602), by a core network control plane node device , that the first UE accessing the communications network of the high-speed moving vehicle is a first-type UE, wherein the first-type UE is a UE used by a user taking the high-speed moving vehicle; allocating, by the core network control plane node device , a first temporary identifier to the first UE , wherein the first temporary identifier comprises a first sequence, and the first sequence is used to indicate that the first UE is a first-type UE; and sending (S603), by the core network control plane node device , the first temporary identifier to the first UE , wherein when the first UE accesses (S604) a public network, the first sequence is used to instruct (S605) a base station to transfer the first UE to the communications network of the high-speed moving vehicle; wherein the first UE generates a radio resource control, RRC, setup request message that carries the first sequence to access a public network, sends the RRC setup request message to the base station of the public network, the base station generates an RRC connection release message according to the first sequence, sends the RRC connection release message to the first UE , and instructs the first UE to access the communications network of the high-speed moving vehicle.
A preform of a container, in particular of a bottle, made of plastic comprising an outer preform and an inner preform inserted into the outer preform ; wherein the outer preform and the inner preform are made of a mutually different material, in particular of a mutually different polymer; wherein the outer preform is provided with at least one vertical protrusion in contact with the inner preform ; wherein the outer preform is made of a polar polymer; characterized in that the inner preform is made of an apolar polymer. wherein the outer preform and the inner preform are made of a mutually different material, in particular of a mutually different polymer; wherein the outer preform is provided with at least one vertical protrusion in contact with the inner preform ; wherein the outer preform is made of a polar polymer; characterized in that the inner preform is made of an apolar polymer.
Installation of sanitary hot water that has a water heating device , a first hot water collection branch extending from the water heating device to a tap , a second hot water circulation branch branching off from the first hot water collection branch and leading back to the water heating device , a water flow forcing device in said second hot water circulation branch, a control switch that reacts to a flow of liquid, the control switch being installed on a cold water branch that feeds the heating device and a temperature sensor characterized in that said control switch comprises an element in the form of a turbine that is activated under the influence of water flow, the turbine being coupled by a second sensor with a control system , which is connected with the water flow forcing device set in the second hot water circulation branch and the temperature sensor is installed in the second hot water circulation branch between the water flow forcing device and the first hot water collection branch .
A self-position correction method for a host vehicle comprising an onboard sensor configured to acquire information about a periphery of the host vehicle, and a controller configured to select a lane in which the host vehicle travels based on information acquired by the onboard sensor and map information, and to correct a self-position of the host vehicle on a map while the host vehicle is travelling, wherein the method for self-position correction performs a lane selection control that includes: identifying a self-position correction object in an intended travel route based on the map information, wherein the self-position correction object is an object to be used as a measurement standard for a position deviation amount when the position of the host vehicle on the map is corrected; characterized by following the identification of the self-position correction object, determining, before the host vehicle reaches a correction point where the identified self-position correction object is present, whether or not the self-position correction object can be recognized by the onboard sensor from the lane in which the host vehicle travels at a timepoint when the host vehicle reaches the correction point; and making a lane change to a lane where the self-position correction object can be recognized before the host vehicle reaches the correction point upon determining that the self-position correction object cannot be recognized from the lane in which the host vehicle travels. identifying a self-position correction object in an intended travel route based on the map information, wherein the self-position correction object is an object to be used as a measurement standard for a position deviation amount when the position of the host vehicle on the map is corrected; characterized by following the identification of the self-position correction object, determining, before the host vehicle reaches a correction point where the identified self-position correction object is present, whether or not the self-position correction object can be recognized by the onboard sensor from the lane in which the host vehicle travels at a timepoint when the host vehicle reaches the correction point; and making a lane change to a lane where the self-position correction object can be recognized before the host vehicle reaches the correction point upon determining that the self-position correction object cannot be recognized from the lane in which the host vehicle travels.
A method for treating an object in a process chamber, comprising: introducing a cleaning liquid to submerge at least a portion of the object ; alternating pressure and vacuum within the process chamber to cause decompression bubbles to form and terminate at a submerged surface of the object ; and characterized by flowing a chemical active liquid or agent to aid in the generation of the bubbles at the object surface . introducing a cleaning liquid to submerge at least a portion of the object ; alternating pressure and vacuum within the process chamber to cause decompression bubbles to form and terminate at a submerged surface of the object ; and characterized by flowing a chemical active liquid or agent to aid in the generation of the bubbles at the object surface .
A semiconductor device comprising: a semiconductor layer of a first conductivity type; body regions of a second conductivity type plurally formed on a surface layer portion of the semiconductor layer at interval; a source region of the first conductivity type formed on a surface layer portion of each body region ; a gate insulating film provided on the semiconductor layer to extend between the body regions adjacent to each other; a gate electrode provided on the gate insulating film and opposed to the body regions ; and a protrusion projected from the surface of the semiconductor layer such that the protrusion is raised with respect to the surface of the semiconductor layer between the body regions adjacent to each other, wherein the protrusion which has the second conductivity type, contacts the gate insulating film . a semiconductor layer of a first conductivity type; body regions of a second conductivity type plurally formed on a surface layer portion of the semiconductor layer at interval; a source region of the first conductivity type formed on a surface layer portion of each body region ; a gate insulating film provided on the semiconductor layer to extend between the body regions adjacent to each other; a gate electrode provided on the gate insulating film and opposed to the body regions ; and a protrusion projected from the surface of the semiconductor layer such that the protrusion is raised with respect to the surface of the semiconductor layer between the body regions adjacent to each other, wherein the protrusion which has the second conductivity type, contacts the gate insulating film .
A method to detect the presence of gut inflammation associated with spondyloarthritis in a patient, comprising the steps of: - determining the abundance of the Dialister genus in a biological sample of said patient, wherein the biological sample is a mucosal biopsy sample, a stool sample, a sample of the lumen content or an oral sample; - if said abundance in said sample is at least 3-fold higher than that in a control sample of a healthy subject, then concluding that said patient has gut inflammation associated with spondyloarthritis. - determining the abundance of the Dialister genus in a biological sample of said patient, wherein the biological sample is a mucosal biopsy sample, a stool sample, a sample of the lumen content or an oral sample; - if said abundance in said sample is at least 3-fold higher than that in a control sample of a healthy subject, then concluding that said patient has gut inflammation associated with spondyloarthritis.
Ambient air purification device for a road vehicle in particular designed to remove dusts, in particular fine particulate matter, and/or gases from the ambient air, wherein the ambient air purification device features at least one filter element and can be disposed in an outer area of the road vehicle , wherein the ambient air purification device is designed to be mounted using a roof rack device, wherein the ambient air purification device features a mounting apparatus for rigid coupling with a vehicle-side mounting means for roof loads, characterized by - a mounting opening for the filter element disposed laterally, vertically or, with respect to an intended direction of travel in a mounting state, at the rear, wherein the mounting opening is closable through a maintenance flap allowing replacement of the filter element , and - wherein the ambient air purification device features, fluidically upstream of the at least one filter element , a water separator comprising a lamella separator and/or a hydrophobic separator layer. wherein the ambient air purification device is designed to be mounted using a roof rack device, wherein the ambient air purification device features a mounting apparatus for rigid coupling with a vehicle-side mounting means for roof loads, characterized by - a mounting opening for the filter element disposed laterally, vertically or, with respect to an intended direction of travel in a mounting state, at the rear, wherein the mounting opening is closable through a maintenance flap allowing replacement of the filter element , and - wherein the ambient air purification device features, fluidically upstream of the at least one filter element , a water separator comprising a lamella separator and/or a hydrophobic separator layer. - a mounting opening for the filter element disposed laterally, vertically or, with respect to an intended direction of travel in a mounting state, at the rear, wherein the mounting opening is closable through a maintenance flap allowing replacement of the filter element , and - wherein the ambient air purification device features, fluidically upstream of the at least one filter element , a water separator comprising a lamella separator and/or a hydrophobic separator layer.