mhurhangee/ep-ind-claims huggingface dataset:
A system for enhancing video images, the system comprising: a map of a scene, the map including one or more elements (31, 33, 35) representative of three-dimensional topographical characteristics of the scene; a video camera for generating a video signal of said scene; and a control unit provided with instructions for adapting a video image of a scene in accordance with a topographical map of the scene to enhance said video image to accentuate the three dimensional topographical characteristics of the scene defined in said map, the control unit being configured to process the video signal from said video camera in accordance with said instructions to accentuate at least those portions of said video image which correspond to said three-dimensional topographical characteristics in said map to thereby generate an output video image in which said three-dimensional characteristics may more easily be appreciated by a viewer, said control unit being configured to compare each frame of said video signal to said map, and to identify regions of each said frame that correspond to regions of said map that include elements (31, 33, 35) representative of three-dimensional topographical characteristics of the scene; the system being characterised in that said control unit is configured to implement block-by-block processing of each frame of said video signal, and to implement pixel-by-pixel processing of only those blocks of each frame that are identified to include a three-dimensional topographical characteristic. a map of a scene, the map including one or more elements (31, 33, 35) representative of three-dimensional topographical characteristics of the scene; a video camera for generating a video signal of said scene; and a control unit provided with instructions for adapting a video image of a scene in accordance with a topographical map of the scene to enhance said video image to accentuate the three dimensional topographical characteristics of the scene defined in said map, the control unit being configured to process the video signal from said video camera in accordance with said instructions to accentuate at least those portions of said video image which correspond to said three-dimensional topographical characteristics in said map to thereby generate an output video image in which said three-dimensional characteristics may more easily be appreciated by a viewer, said control unit being configured to compare each frame of said video signal to said map, and to identify regions of each said frame that correspond to regions of said map that include elements (31, 33, 35) representative of three-dimensional topographical characteristics of the scene; the system being characterised in that said control unit is configured to implement block-by-block processing of each frame of said video signal, and to implement pixel-by-pixel processing of only those blocks of each frame that are identified to include a three-dimensional topographical characteristic.
An image processing apparatus comprising: an acquisition unit configured to acquire an image generated by image pickup through an optical system; and a processor configured to: acquire, for a plurality of specific image heights, two-dimensional point spread function data of the optical system corresponding to an image-pickup condition of the optical system for a position of the image corresponding to a respective specific image height, and provide, for each of the plurality of specific image heights, unsharp mask processing to the image by using a filter, which is generated from the two-dimensional point spread function data for the position of the image corresponding to the respective specific image height, and wherein the filter includes two-dimensional tap data which is rotationally asymmetrically distributed due to rotational asymmetry of the two-dimensional point spread function data. an acquisition unit configured to acquire an image generated by image pickup through an optical system; and a processor configured to: acquire, for a plurality of specific image heights, two-dimensional point spread function data of the optical system corresponding to an image-pickup condition of the optical system for a position of the image corresponding to a respective specific image height, and provide, for each of the plurality of specific image heights, unsharp mask processing to the image by using a filter, which is generated from the two-dimensional point spread function data for the position of the image corresponding to the respective specific image height, and acquire, for a plurality of specific image heights, two-dimensional point spread function data of the optical system corresponding to an image-pickup condition of the optical system for a position of the image corresponding to a respective specific image height, and provide, for each of the plurality of specific image heights, unsharp mask processing to the image by using a filter, which is generated from the two-dimensional point spread function data for the position of the image corresponding to the respective specific image height, and wherein the filter includes two-dimensional tap data which is rotationally asymmetrically distributed due to rotational asymmetry of the two-dimensional point spread function data.
A method of producing an antibody which binds to quetiapine, the method comprising: i. selecting a non-human host for antibody production; and ii. inoculating the host with a conjugate of a compound of Formula I and an immunogenic carrier, wherein the host produces an antibody which binds to quetiapine, wherein: R 1 is H, CH2NH2, or CH 2 NHC (CH 2) m CO 2 H; R 2 is H, CH 2 NH 2, or CH 2 NHC (CH 2) m CO 2 H; R 3 is H; provided that either R 1 or R 2 must be H, and further provided that both R 1 and R 2 may not be H simultaneously; m is 1, 2, 3, 4, or 5; and n is 1, 2, 3, 4, or 5. i. selecting a non-human host for antibody production; and ii. inoculating the host with a conjugate of a compound of Formula I and an immunogenic carrier, wherein the host produces an antibody which binds to quetiapine, wherein: R 1 is H, CH2NH2, or CH 2 NHC (CH 2) m CO 2 H; R 2 is H, CH 2 NH 2, or CH 2 NHC (CH 2) m CO 2 H; R 3 is H; provided that either R 1 or R 2 must be H, and further provided that both R 1 and R 2 may not be H simultaneously; m is 1, 2, 3, 4, or 5; and n is 1, 2, 3, 4, or 5. R 1 is H, CH2NH2, or CH 2 NHC (CH 2) m CO 2 H; R 2 is H, CH 2 NH 2, or CH 2 NHC (CH 2) m CO 2 H; R 3 is H; provided that either R 1 or R 2 must be H, and further provided that both R 1 and R 2 may not be H simultaneously; m is 1, 2, 3, 4, or 5; and n is 1, 2, 3, 4, or 5.
A rotor for use in a tangential internal batch mixer, the rotor comprising: a main body configured to rotate about a rotor axis, a wing extending from the main body, and arranged helically about a portion of the main body; the wing comprising a wing tip surface, a first portion of the wing tip surface extending between a first edge and a second edge of the wing; characterised in that the first edge comprises a first helix angle (α) and the second edge comprises a second helix angle (β), the first helix angle being different to the second helix angle. a main body configured to rotate about a rotor axis, a wing extending from the main body, and arranged helically about a portion of the main body; the wing comprising a wing tip surface, a first portion of the wing tip surface extending between a first edge and a second edge of the wing; characterised in that the first edge comprises a first helix angle (α) and the second edge comprises a second helix angle (β), the first helix angle being different to the second helix angle.
A control device for a two-wheeled motor vehicle, in which a curvature radius (Cr) of a cross section of a tire mounted on one of a front wheel and a rear wheel is larger than a curvature radius (Cf) of a cross section of a tire mounted on the other wheel, the control device comprising: a sensor for detecting a rotation speed of the one wheel; a sensor for detecting a rotation speed of the other wheel; and a turn determining section for determining that the vehicle is turning on condition that a value corresponding to a bank angle (θ) of the vehicle is higher than a threshold, wherein the value corresponding to the bank angle (θ) of the vehicle is defined as a value indicating a relative amount (Δω) of the rotation speed (ωf) of the one wheel relative to the rotation speed (ωr) of the other wheel, wherein the turn determining section compares the rotation speed of the one wheel and the rotation speed of the other wheel, while utilizing a coefficient corresponding to a difference in a diameter between the tire of the one wheel and the tire of the other wheel, characterized in that the control device includes a coefficient updating section, wherein the coefficient updating section determines whether or not the diameter of the tire of the one wheel or the diameter of the tire of the other wheel is changed, based on the rotation speed of the one wheel and the rotation of the other wheel, and then updates the coefficient when determining the diameter is changed. a sensor for detecting a rotation speed of the one wheel; a sensor for detecting a rotation speed of the other wheel; and a turn determining section for determining that the vehicle is turning on condition that a value corresponding to a bank angle (θ) of the vehicle is higher than a threshold, wherein the value corresponding to the bank angle (θ) of the vehicle is defined as a value indicating a relative amount (Δω) of the rotation speed (ωf) of the one wheel relative to the rotation speed (ωr) of the other wheel, wherein the turn determining section compares the rotation speed of the one wheel and the rotation speed of the other wheel, while utilizing a coefficient corresponding to a difference in a diameter between the tire of the one wheel and the tire of the other wheel, characterized in that the control device includes a coefficient updating section, wherein the coefficient updating section determines whether or not the diameter of the tire of the one wheel or the diameter of the tire of the other wheel is changed, based on the rotation speed of the one wheel and the rotation of the other wheel, and then updates the coefficient when determining the diameter is changed.
A use of a composition for depolymerization of a cured epoxy resin material, the composition comprising a compound represented by a chemical formula of XO m Y n wherein X is hydrogen, alkali metal or alkaline earth metal, Y is halogen, m is a number satisfying 1≤m≤8 and n is a number satisfying 1≤n≤6; and a reaction solvent; wherein X is capable of being dissociated from XO m Y n and Y radical is capable of being produced from XO m Y n in the reaction solvent, wherein the reaction solvent is a H 2 O-based reaction solvent that comprises H 2 O and has a dielectric constant of at least 65 or at least 70 or at least 75 or at least 80, determined by using a dielectric constant meter and optionally, wherein H 2 O is in a liquid, gaseous or supercritical state.
A method for producing a fiber bale comprising the steps of: providing a press for producing a highly compressed hexahedral fibrous material comprising at least one convex bale platen; filling said press with said fibrous material; pressing said fibrous material via said press; and thereby producing a highly compressed hexahedral fibrous material; characterized by further comprising the steps of: allowing said highly compressed hexahedral fibrous material to expand up to 25% by height; packaging said expanded highly compressed hexahedral fibrous material with a wrapping material; and securing said wrapping material thereby producing said fiber bale. providing a press for producing a highly compressed hexahedral fibrous material comprising at least one convex bale platen; filling said press with said fibrous material; pressing said fibrous material via said press; and thereby producing a highly compressed hexahedral fibrous material; characterized by further comprising the steps of: allowing said highly compressed hexahedral fibrous material to expand up to 25% by height; packaging said expanded highly compressed hexahedral fibrous material with a wrapping material; and securing said wrapping material thereby producing said fiber bale. allowing said highly compressed hexahedral fibrous material to expand up to 25% by height; packaging said expanded highly compressed hexahedral fibrous material with a wrapping material; and securing said wrapping material thereby producing said fiber bale.
A circular surgical stapling device comprising: a handle assembly including a firing trigger; a body portion extending distally from the handle assembly; a head portion disposed adjacent the body portion and including an anvil assembly and a shell assembly, the anvil assembly being movable in relation to the shell assembly between spaced and approximated positions, the shell assembly including: an outer housing portion having a wall with a circumferential cross-section including areas of thinner and thicker wall thickness, and an outer row of staple pockets; characterized in that individual staple pockets in the outer row of staple pockets are located in areas of thinner wall thickness, such that staples may be at least partially located in these outer pockets to be at least partially located further outside in a radial direction than the inner walls of thicker wall thickness areas. a handle assembly including a firing trigger; a body portion extending distally from the handle assembly; a head portion disposed adjacent the body portion and including an anvil assembly and a shell assembly, the anvil assembly being movable in relation to the shell assembly between spaced and approximated positions, the shell assembly including: an outer housing portion having a wall with a circumferential cross-section including areas of thinner and thicker wall thickness, and an outer row of staple pockets; characterized in that individual staple pockets in the outer row of staple pockets are located in areas of thinner wall thickness, such that staples may be at least partially located in these outer pockets to be at least partially located further outside in a radial direction than the inner walls of thicker wall thickness areas. an outer housing portion having a wall with a circumferential cross-section including areas of thinner and thicker wall thickness, and an outer row of staple pockets; characterized in that individual staple pockets in the outer row of staple pockets are located in areas of thinner wall thickness, such that staples may be at least partially located in these outer pockets to be at least partially located further outside in a radial direction than the inner walls of thicker wall thickness areas.
Use of a device having an adjustable resistor comprising a stack of two magnetic layers which are separated by an insulating or semi-conductive layer, the stack forming a bar, a first of the two magnetic layers comprising a magnetic wall which separates two zones having homogeneous magnetisation directions which are substantially parallel with the longitudinal axis of the bar but have opposing directions, the magnetic wall being substantially perpendicular to the longitudinal axis of the bar, the second of the two magnetic layers having a homogeneous magnetisation direction which is substantially parallel with the longitudinal axis of the bar, the device being used to continuously adjust a resistance over a continuous range of values which extends continuously between a minimal resistance in which the magnetisation directions in the first and the second layers are parallel and a maximum resistance in which the magnetisation directions in the first and second layers are orientated in opposite directions, by applying an electric current which is spin polarised through the magnetic wall which enables it to be moved, the device retaining its resistance value when it is switched off.
A handle assembly for a vehicle door having an inner panel and an outer panel, the handle assembly comprising: an escutcheon suitable to be disposed in the outer panel of the vehicle door; a handle body disposed at a vehicular outer side of the escutcheon; first protection means disposed at the vehicular inner side of the escutcheon, the first protection means comprising an engaging hole configured to receive a key cylinder; and second protection means disposed at the vehicular inner side of the escutcheon to cover a periphery of the key cylinder; wherein the second protection means is suitable to be coupled to the inner panel of the vehicle door and comprises at least one support (93, 94) contacting the first protection means, wherein the second protection means is arranged to receive an impact load exerted upon the first protection means toward the vehicular inner side, and wherein the impact load exerted upon the key cylinder toward the vehicular inner side is suitable to be transferred from the first protection means through the at least one support (93, 94) and the second protection means to the inner panel of the vehicle door. an escutcheon suitable to be disposed in the outer panel of the vehicle door; a handle body disposed at a vehicular outer side of the escutcheon; first protection means disposed at the vehicular inner side of the escutcheon, the first protection means comprising an engaging hole configured to receive a key cylinder; and second protection means disposed at the vehicular inner side of the escutcheon to cover a periphery of the key cylinder; wherein the second protection means is suitable to be coupled to the inner panel of the vehicle door and comprises at least one support (93, 94) contacting the first protection means, wherein the second protection means is arranged to receive an impact load exerted upon the first protection means toward the vehicular inner side, and wherein the impact load exerted upon the key cylinder toward the vehicular inner side is suitable to be transferred from the first protection means through the at least one support (93, 94) and the second protection means to the inner panel of the vehicle door.
An isolated antibody, or fragment thereof, that binds to BACE1, wherein the antibody reduces or inhibits the activity of the BACE1 polypeptide comprising an HVR-H1 comprising an amino acid sequence selected from SEQ ID NOs: 22, 23,and 71 -73; an HVR-H2 comprising an amino acid sequence selected from SEQ ID NOs: 24 and 74 -78; an HVR-H3 comprising an amino acid sequence selected from SEQ ID NOs: 25 and 79; an HVR-L1 comprising an amino acid sequence selected from SEQ ID NOs: 7 and 8; an HVR-L2 comprising an amino acid sequence selected from SEQ ID NOs: 9, 10, and 58 - 64; and an HVR-L3 comprising an amino acid sequence selected from SEQ ID NOs: 11-16 and 65 - 67.
Vehicle inductive charging apparatus having a receiving coil arrangement (SA1, SA2, SA3, SA4, SA5, SA6) for inductively charging a vehicle, wherein the receiving coil arrangement (SA1, SA2, SA3, SA4, SA5, SA6) comprises: - an outer ferrite core which is formed so as to enclose a surface area; - an inner ferrite core which is physically connected to the outer ferrite core by means of at least one connecting point and extends in the surface area from this connecting point, characterized in that - the receiving coil arrangement (SA1, SA2, SA3, SA4, SA5, SA6) further comprises an outer coil which is wound around the outer ferrite core along a direction of longitudinal extent of the outer ferrite core. - an outer ferrite core which is formed so as to enclose a surface area; - an inner ferrite core which is physically connected to the outer ferrite core by means of at least one connecting point and extends in the surface area from this connecting point, - the receiving coil arrangement (SA1, SA2, SA3, SA4, SA5, SA6) further comprises an outer coil which is wound around the outer ferrite core along a direction of longitudinal extent of the outer ferrite core.
An insulating wall element for cladding surfaces, especially facades, consisting of two layers (2, 3), wherein the first layer consists of a heat insulating material whose surface is bonded to the second layer made of lightweight concrete, wherein said lightweight concrete layer has a thickness of from 15 to 40 mm and a bulk density of from 600 to 2000 kg/m 3, characterized in that said heat insulating material layer has a circumferential groove on the contact surface towards the lightweight concrete layer, wherein the lightweight concrete layer does not extend beyond said groove.
A sheet of sandpaper, comprising: (a) a backing layer having opposed first and second major surfaces (12a; 12b); (b) an adhesive make coat on the second major surface; (c) abrasive particles at least partially embedded in the make coat, thereby defining an abrasive surface; and (d) a non-slip coating layer on the first major surface, characterised by the non-slip coating layer providing a smooth outer surface, that does not include a textured surface or a macroscopic three dimensional surface topography. (a) a backing layer having opposed first and second major surfaces (12a; 12b); (b) an adhesive make coat on the second major surface; (c) abrasive particles at least partially embedded in the make coat, thereby defining an abrasive surface; and (d) a non-slip coating layer on the first major surface, characterised by the non-slip coating layer providing a smooth outer surface, that does not include a textured surface or a macroscopic three dimensional surface topography.
A method for producing a composite material mold for a composite material long member, comprising the steps of molding a material of a mold having a two-dimensional shape that is a shape having a constant cross-section shape and positions along an axis, characterized in that the two-dimensional mold material is produced in a completely-cured state by causing a material obtained by overlapping a required number of prepreg sheets in which a composite material such as carbon fiber is impregnated with thermosetting resin to continuously pass through a hot press and a heat curing oven while applying a tension to the material; and in that it comprises further the steps of forming a joggle portion (2a, 2b) partially having a different shape in section by laminating a required number of prepreg sheets on a portion of a surface of the completely-cured two-dimensional mold material; and completely curing the mold material where the joggle portion (2a, 2b) is formed by heating and pressurization.