mhurhangee/patent-ind-claim-en huggingface dataset:
A carrier comprising a core composed of a magnetic material, and a resin layer including particles of barium sulfate, wherein the resin layer is disposed on the core, wherein an amount of Ba detected is 0.3 atomic% or greater in a Ba analysis through X-ray photoelectron spectroscopy (XPS) of the carrier, as measured according to the description, and wherein circle-equivalent diameters of the particles of the barium sulfate are 400 nm or greater but 900 nm or smaller, as measured according to the description.
A prosthetic device (4100; 4200; 4300) comprising: a spacer body (4102; 4202; 4302) having a non-cylindrical shape and being configured to be positioned within a native valve orifice of a native valve having at least two native leaflets, the spacer body (4102; 4202; 4302) having an atrial end, a ventricular end, and a side surface; a pair of anchors (4104; 4204; 4304), each anchor (4104; 4204; 4304) configured to secure the device (4100; 4200; 4300) to one of the native leaflets such that the spacer body (4101; 4202; 4302) is positioned between the at least two native leaflets, wherein each anchor (4104; 4204) is attached to the spacer body (4102; 4202; 4302) at a location adjacent the ventricular end of the spacer body (4102; 4202; 4302) and configured to be positioned behind a native valve leaflet of the at least two native leaflets such that the native leaflet is captured between the anchor (4104; 4204; 4304) and the spacer body (4102; 4202; 4302); wherein each anchor (4104; 4204; 4304) comprises a first foldable portion (4108; 4208; 4308) having one end connected to the ventricular end of the spacer body (4102; 4202; 4302) and a second foldable portion (4110; 4210; 4310) having one end connected to an end cap (4112; 4212; 4312). a spacer body (4102; 4202; 4302) having a non-cylindrical shape and being configured to be positioned within a native valve orifice of a native valve having at least two native leaflets, the spacer body (4102; 4202; 4302) having an atrial end, a ventricular end, and a side surface; a pair of anchors (4104; 4204; 4304), each anchor (4104; 4204; 4304) configured to secure the device (4100; 4200; 4300) to one of the native leaflets such that the spacer body (4101; 4202; 4302) is positioned between the at least two native leaflets, wherein each anchor (4104; 4204) is attached to the spacer body (4102; 4202; 4302) at a location adjacent the ventricular end of the spacer body (4102; 4202; 4302) and configured to be positioned behind a native valve leaflet of the at least two native leaflets such that the native leaflet is captured between the anchor (4104; 4204; 4304) and the spacer body (4102; 4202; 4302); wherein each anchor (4104; 4204; 4304) comprises a first foldable portion (4108; 4208; 4308) having one end connected to the ventricular end of the spacer body (4102; 4202; 4302) and a second foldable portion (4110; 4210; 4310) having one end connected to an end cap (4112; 4212; 4312).
Process for preparing polyoxyalkylene polyester polyols by reaction of a starter compound having Zerewitinoff-active H atoms, a cyclic dicarboxylic anhydride and a fatty acid ester with an alkylene oxide in the presence of a basic catalyst comprising the following steps of: (i) providing a mixture (i) comprising the starter compound and the fatty acid ester , wherein the mixture (i) contains no cyclic dicarboxylic anhydride ; (ii) reacting the mixture (i) from step (i) with a portion (v1) of the alkylene oxide , wherein at least 0.15 mol of alkylene oxide per 1 mol of Zerewitinoff-active hydrogen atoms of the starter compound is added to form a compound (ii); (iii) reacting the compound (ii) formed in step (ii) by addition of the dicarboxylic anhydride to form a compound (iii); (iv) reacting the compound (iii) from step (iii) with a portion (v2) of the alkylene oxide , wherein at least 1.15 mol of alkylene oxide per 1 mol of the dicarboxylic anhydride is added. (i) providing a mixture (i) comprising the starter compound and the fatty acid ester , wherein the mixture (i) contains no cyclic dicarboxylic anhydride ; (ii) reacting the mixture (i) from step (i) with a portion (v1) of the alkylene oxide , wherein at least 0.15 mol of alkylene oxide per 1 mol of Zerewitinoff-active hydrogen atoms of the starter compound is added to form a compound (ii); (iii) reacting the compound (ii) formed in step (ii) by addition of the dicarboxylic anhydride to form a compound (iii); (iv) reacting the compound (iii) from step (iii) with a portion (v2) of the alkylene oxide , wherein at least 1.15 mol of alkylene oxide per 1 mol of the dicarboxylic anhydride is added.
A steering assist unit configured to be connected to a tiller handle of an outboard motor , the steering assist unit comprising: a housing is configured to be connected to the tiller handle ; a pump housed in the housing ; and a hydraulic actuator configured to be driven by hydraulic fluid from the pump , the hydraulic actuator being configured to apply an assist steering force to the outboard motor , characterized in that the housing is configured to be connected and mounted to the tiller handle a housing is configured to be connected to the tiller handle ; a pump housed in the housing ; and a hydraulic actuator configured to be driven by hydraulic fluid from the pump , the hydraulic actuator being configured to apply an assist steering force to the outboard motor , characterized in that the housing is configured to be connected and mounted to the tiller handle
Method for preparing a Swertia chirata extract, comprising a step of extracting, with supercritical CO 2 , an alcoholic extract of Swertia chirata, at a temperature of between 40 and 80°C, preferably between 50 and 70°C and at a pressure of between 20 and 60 MPa, preferably between 25 and 35 MPa.
An inhaler comprising: a reception unit for receiving an inhalation article; a heater for heating the inhalation article received; an electric power supply for supplying electric power to the heater; a memory for storing data relating to plural heating profiles; a controller for controlling operation of the inhaler based on the plural heating profiles; and a temperature detector for detecting temperature of the heater; characterised in that the controller performs preheating operation that is in common among the plural heating profiles, and the preheating operation that is in common comprises a first preheating operation for keeping temperature of the heater at substantially identical first heating temperature over a first heating period that is in common in the plural heating profiles. a reception unit for receiving an inhalation article; a heater for heating the inhalation article received; an electric power supply for supplying electric power to the heater; a memory for storing data relating to plural heating profiles; a controller for controlling operation of the inhaler based on the plural heating profiles; and a temperature detector for detecting temperature of the heater; characterised in that the controller performs preheating operation that is in common among the plural heating profiles, and the preheating operation that is in common comprises a first preheating operation for keeping temperature of the heater at substantially identical first heating temperature over a first heating period that is in common in the plural heating profiles.
Drive shaft for a power tool , for example a core drilling machine, that is connectable to a drilling tool , in particular a core bit, containing a cavity extending substantially along the entire length of the drive shaft and along the axis of rotation (M), wherein the cavity contains at least one inflow opening, through which water (W) is able to be fed into the drilling tool along the drive shaft, characterized in that an insert device is provided in the cavity , the water (W) for cooling the drive shaft being guided first in a first direction (A) and subsequently in a second direction (B) through said insert device , wherein the insert device contains a first bent guide element and a second bent guide element for separating the water (W) that is guided in the first direction (A) from the water (W) that is guided in the second direction (B), and wherein the cross-sectional area (Q1) of the first bent guide element is configured with point symmetry about a longitudinal centre axis (M) with respect to the cross-sectional area (Q2) of the second bent guide element .
An aqueous ink for ink jet comprising: a coloring material; and a block copolymer, wherein the block copolymer includes an A block having a segment A having no acid group, and a group represented by Formula bonded to one terminal of the segment A, and a B block having a segment B having an acid group and a group represented by Formula bonded to one terminal of the segment B, wherein in Formula , ∗ represents a bonding position to one terminal of the segment A, R1 represents an alkylene group, and M represents a hydrogen atom, an alkali metal, ammonium or an organic ammonium; and wherein in Formula , ∗ represents a bonding position to one terminal of the segment B, R2 and R3 each independently represent a hydrogen atom or an alkyl group, and R2 and R3 may be bonded to each other to form a ring structure. a coloring material; and a block copolymer, wherein the block copolymer includes an A block having a segment A having no acid group, and a group represented by Formula bonded to one terminal of the segment A, and a B block having a segment B having an acid group and a group represented by Formula bonded to one terminal of the segment B, an A block having a segment A having no acid group, and a group represented by Formula bonded to one terminal of the segment A, and a B block having a segment B having an acid group and a group represented by Formula bonded to one terminal of the segment B, wherein in Formula , ∗ represents a bonding position to one terminal of the segment A, R1 represents an alkylene group, and M represents a hydrogen atom, an alkali metal, ammonium or an organic ammonium; and wherein in Formula , ∗ represents a bonding position to one terminal of the segment B, R2 and R3 each independently represent a hydrogen atom or an alkyl group, and R2 and R3 may be bonded to each other to form a ring structure.
A quick connector comprising: a connector body defining a fluid passage between a fluid input end and a fluid output end , the connector body bearing a verification indicia on an outer surface thereof and defining a transverse opening proximate the fluid input end ; a connector sleeve that is movable axially over the fluid input end of the connector body from a first axial position to a second axial position, the connector sleeve including a cylindrical sidewall defining an indicator window ; a sliding lock latch that is moveable from an unlatched position to a latched position through the transverse opening in the connector body , wherein, in the unlatched position, the connector sleeve is in the first axial position such that the verification indicia is at least partially concealed from view, and in the latched position, the connector sleeve can be moved to the second axial position such that the verification indicia is viewable through the indicator window , the sliding lock latch including first and second wing elements extending radially outward therefrom, the first and second wing elements preventing rotation of the connector sleeve relative to the connector body when the sliding lock latch is in the latched position. a connector body defining a fluid passage between a fluid input end and a fluid output end , the connector body bearing a verification indicia on an outer surface thereof and defining a transverse opening proximate the fluid input end ; a connector sleeve that is movable axially over the fluid input end of the connector body from a first axial position to a second axial position, the connector sleeve including a cylindrical sidewall defining an indicator window ; a sliding lock latch that is moveable from an unlatched position to a latched position through the transverse opening in the connector body , wherein, in the unlatched position, the connector sleeve is in the first axial position such that the verification indicia is at least partially concealed from view, and in the latched position, the connector sleeve can be moved to the second axial position such that the verification indicia is viewable through the indicator window , the sliding lock latch including first and second wing elements extending radially outward therefrom, the first and second wing elements preventing rotation of the connector sleeve relative to the connector body when the sliding lock latch is in the latched position.
A flywheel and paddle assembly for a chipping or shredding apparatus , said assembly comprising: a drive shaft ; a flywheel attached coaxially to said drive shaft , said flywheel having a front side , a back side , and at least one aperture extending from the front side to the back side ; at least one knife carried by said flywheel adjacent to said at least one aperture , said at least one knife presenting a knife edge on the front side of said flywheel ; and a paddle rotatably mounted coaxially to said drive shaft adjacent to said back side of said flywheel , characterized in that said paddle is configured to rotate on said drive shaft independently of said flywheel . a drive shaft ; a flywheel attached coaxially to said drive shaft , said flywheel having a front side , a back side , and at least one aperture extending from the front side to the back side ; at least one knife carried by said flywheel adjacent to said at least one aperture , said at least one knife presenting a knife edge on the front side of said flywheel ; and a paddle rotatably mounted coaxially to said drive shaft adjacent to said back side of said flywheel , characterized in that said paddle is configured to rotate on said drive shaft independently of said flywheel .
A head-up display device , which projects a display light (L) emitted from a display including a backlight unit and a display to a viewpoint area of a viewer via a projection means, and visually recognizes an image represented by the display light (L), comprising: a light source which emits light to illuminate the display element; a lens array which divides light emitted from the light source , and generates a plurality of images of the light source , and a condensing means which condenses light emitted from an image of the light source to correspond to a display area of the display element, wherein the condensing means is configured such that a focal distance is different in longitudinal and lateral directions to correct a different focal distance of the projection means in longitudinal and lateral directions, wherein the condensing means comprises one or more focusing lenses, and a front surface of at least one of the focusing lenses is toroidal or free curved, characterised in that : a plurality of lenses is arranged in the lens array , and the lens array is configured such that a light distribution angle of a lens in a periphery is different from a light distribution angle of a lens at a center. a light source which emits light to illuminate the display element; a lens array which divides light emitted from the light source , and generates a plurality of images of the light source , and a condensing means which condenses light emitted from an image of the light source to correspond to a display area of the display element, wherein the condensing means is configured such that a focal distance is different in longitudinal and lateral directions to correct a different focal distance of the projection means in longitudinal and lateral directions, wherein the condensing means comprises one or more focusing lenses, and a front surface of at least one of the focusing lenses is toroidal or free curved, characterised in that : a plurality of lenses is arranged in the lens array , and the lens array is configured such that a light distribution angle of a lens in a periphery is different from a light distribution angle of a lens at a center.
A hard capsule formulation comprising: a hydroxypropyl methyl cellulose hard capsule with acid resistance, wherein said hard capsule is not treated with an enteric coating; and as materials filled within said capsule: 1) an excipient and an agent to inhibit invasion of gastric fluid, wherein said agent to inhibit invasion of gastric fluid comprises a water repellent agent selected from the group consisting of calcium stearate, magnesium stearate, and carnauba wax and optionally a gelling agent, wherein the amount of said water repellent agent and gelling agent, when present, is from 9% to 25% of the total weight of the materials filled within the hard capsule; and 2) a pharmaceutical agent. a hydroxypropyl methyl cellulose hard capsule with acid resistance, wherein said hard capsule is not treated with an enteric coating; and as materials filled within said capsule: 1) an excipient and an agent to inhibit invasion of gastric fluid, wherein said agent to inhibit invasion of gastric fluid comprises a water repellent agent selected from the group consisting of calcium stearate, magnesium stearate, and carnauba wax and optionally a gelling agent, wherein the amount of said water repellent agent and gelling agent, when present, is from 9% to 25% of the total weight of the materials filled within the hard capsule; and 2) a pharmaceutical agent. 1) an excipient and an agent to inhibit invasion of gastric fluid, wherein said agent to inhibit invasion of gastric fluid comprises a water repellent agent selected from the group consisting of calcium stearate, magnesium stearate, and carnauba wax and optionally a gelling agent, wherein the amount of said water repellent agent and gelling agent, when present, is from 9% to 25% of the total weight of the materials filled within the hard capsule; and 2) a pharmaceutical agent.
A lentiviral vector particle pseudotyped with (a) a fusion protein of vesicular stomatitis virus envelope glycoprotein (VSV-G) linked to a cell membrane-binding domain, said fusion protein being encoded by a nucleic acid molecule comprising or consisting of in 5' to 3' direction (i) a first sequence segment encoding an endoplasmic reticulum (ER) signal sequence; (ii) a second sequence segment encoding a (poly)peptide comprising or consisting of a cell membrane-binding domain being capable of directly binding to a cell membrane thereby connecting a viral particle expressing the fusion protein to a target cell that is to be transduced by the viral particle; (iii) a third sequence segment encoding a flexible (poly)peptide linker of at least 3 amino acids in length; and (iv) a fourth sequence segment encoding said VSV-G; and (b) a wild-type VSV-G; wherein the ratio of the VSV-G fusion protein of (a) to the wild-type VSV-G of (b) is in the range of about 10% : about 90% to about 50% : about 50%, wherein the term "about" is a deviation from these percentages of up to 5%. (a) a fusion protein of vesicular stomatitis virus envelope glycoprotein (VSV-G) linked to a cell membrane-binding domain, said fusion protein being encoded by a nucleic acid molecule comprising or consisting of in 5' to 3' direction (i) a first sequence segment encoding an endoplasmic reticulum (ER) signal sequence; (ii) a second sequence segment encoding a (poly)peptide comprising or consisting of a cell membrane-binding domain being capable of directly binding to a cell membrane thereby connecting a viral particle expressing the fusion protein to a target cell that is to be transduced by the viral particle; (iii) a third sequence segment encoding a flexible (poly)peptide linker of at least 3 amino acids in length; and (iv) a fourth sequence segment encoding said VSV-G; and (i) a first sequence segment encoding an endoplasmic reticulum (ER) signal sequence; (ii) a second sequence segment encoding a (poly)peptide comprising or consisting of a cell membrane-binding domain being capable of directly binding to a cell membrane thereby connecting a viral particle expressing the fusion protein to a target cell that is to be transduced by the viral particle; (iii) a third sequence segment encoding a flexible (poly)peptide linker of at least 3 amino acids in length; and (iv) a fourth sequence segment encoding said VSV-G; and (b) a wild-type VSV-G;
A joining method of joining a first member made of a metal material and a second member made of a material difficult to be welded to the first member with the first member and the second member overlapping each other, the second member including a through-portion penetrating toward the first member, the joining method comprising: a first step of forming a third member for compressing and fixing the second member between the first member and the third member by welding a first filler material , which is weldable to the first member, to the first member through the through-portion; the joining method being characterized by a second step of forming a fourth member by covering a surface of the third member with a second filler material , which is weldable to the second member, and welding the second filler material to the second member. a first step of forming a third member for compressing and fixing the second member between the first member and the third member by welding a first filler material , which is weldable to the first member, to the first member through the through-portion; the joining method being characterized by a second step of forming a fourth member by covering a surface of the third member with a second filler material , which is weldable to the second member, and welding the second filler material to the second member.
A cellulosic pulp structure defined by a matrix of cellulose fibers and having a fluid retention agent distributed through the structure, said cellulosic pulp structure being adapted to acquire and retain fluid; wherein the cellulose fibers are treated with an inorganic peroxide and a destabilizing acid adapted to react with the inorganic peroxide in the presence of an aqueous fluid to produce hydrogen peroxide; wherein the structure has one or more of a peroxide content from 1% to 10% by weight of the cellulose fibers, and an acid content from 0.45% to 3% by weight of the cellulose fibers; wherein the inorganic peroxide is calcium peroxide; wherein the destabilizing acid is citric acid.
An object identification system for being mounted on a vehicle comprising: a distance sensor structured to scan a single beam in a horizontal direction so as to measure distances to points on a surface of an object (OBJ) and to generate a single item of point cloud data, PCD, that corresponds to a single scan line; and a processing device comprising a classifier structured to identify a kind of the object (OBJ) based on the single item of point cloud data that corresponds to the single scan line generated by the distance sensor , wherein the classifier is implemented based on a learned model generated by machine learning, and wherein the machine learning is executed using a plurality of items of point cloud data that correspond to a plurality of scan lines obtained by measuring a predetermined object by means of a Light Detection and Ranging, LiDAR , supporting a plurality of scan lines having different heights, the LiDAR being different from the distance sensor . a distance sensor structured to scan a single beam in a horizontal direction so as to measure distances to points on a surface of an object (OBJ) and to generate a single item of point cloud data, PCD, that corresponds to a single scan line; and a processing device comprising a classifier structured to identify a kind of the object (OBJ) based on the single item of point cloud data that corresponds to the single scan line generated by the distance sensor , wherein the classifier is implemented based on a learned model generated by machine learning, and wherein the machine learning is executed using a plurality of items of point cloud data that correspond to a plurality of scan lines obtained by measuring a predetermined object by means of a Light Detection and Ranging, LiDAR , supporting a plurality of scan lines having different heights, the LiDAR being different from the distance sensor .