mhurhangee/patent-ind-claim-en huggingface dataset:
An opacifying cluster particle suitable for latex paint compositions to provide increased opacity, the opacifying cluster particle comprising: a polymeric latex binder coalescing cluster components into a generally homogeneous particle; the cluster components include discrete polymeric particles each defining a closed void volume therein, a plurality of optional inorganic pigment particles, and a plurality of extender pigment particles; and a porosity of the polymeric latex binder defining a binder void volume. a polymeric latex binder coalescing cluster components into a generally homogeneous particle; the cluster components include discrete polymeric particles each defining a closed void volume therein, a plurality of optional inorganic pigment particles, and a plurality of extender pigment particles; and a porosity of the polymeric latex binder defining a binder void volume.
Door handle unit for actuating a lock of a movable part of a motor vehicle , in particular a door, a lid or the like, with a door handle which is movably arranged on a carrier element for mechanical opening of the movable part by a user, wherein the door handle comprises at least one rest position and one working position, a mechanical coupling element which is movably arranged on the carrier element and by means of which a movement of the door handle from the rest position to the working position can be transmitted to the lock , wherein the door handle and the coupling element interact mechanically and form a movable actuating mechanism , and at least one locking unit which in a normal case (Ia) enables a movement of the actuating mechanism for actuating the lock and only in a locking case (Ib) blocks a movement of the actuating mechanism for actuating the lock , characterized in that for the locking case (Ib) the locking unit can be activated by an extraordinary movement of the actuating mechanism , wherein the locking unit comprises at least one movable locking pawl (16.1), which blocks the actuating mechanism in the locking case (Ib) in a form-locking manner , and wherein the at least one locking pawl (16.1) of the locking unit engages in the locking position (IIb) by means of an engaging connection when changing from the release position (IIa) to the locking position (IIb).
A DLP 3D printer system for building 3D objects comprising a control unit , production table and DLP projector apparatus arranged to selectively irradiate a layer of radiation-curable material at the production table, wherein the DLP projector apparatus comprises: at least three light sources to be turned on in sequence, each capable of radiating a monochromatic light beam; at least one light sink for capturing at least some of said monochromatic light beams; at least one projection lens for refracting and projecting at least some of said monochromatic light beams for display; at least one DMD chip for selectively reflecting at least some of said radiated monochromatic light beams from said at least three light sources towards said projection lens for refracting and projecting an image display; and the control unit controls the activation of each of said at least three light sources in synchronization with said DMD chip; wherein said image display comprises images of said at least three light sources which are defocused to display said images shifted with respect to each other on a defocused imaging plane at the production table. at least three light sources to be turned on in sequence, each capable of radiating a monochromatic light beam; at least one light sink for capturing at least some of said monochromatic light beams; at least one projection lens for refracting and projecting at least some of said monochromatic light beams for display; at least one DMD chip for selectively reflecting at least some of said radiated monochromatic light beams from said at least three light sources towards said projection lens for refracting and projecting an image display; and the control unit controls the activation of each of said at least three light sources in synchronization with said DMD chip; wherein said image display comprises images of said at least three light sources which are defocused to display said images shifted with respect to each other on a defocused imaging plane at the production table.
Method for metering a fluid medium by means of a metering device in the form of a piston pump having a cylinder (Z) and an adjustable piston , wherein the cylinder (Z) and the piston form a working space (A), characterised in that - in a first method step, a specific filling quantity of the fluid medium is conveyed into the working space (A), wherein the filling quantity is greater than the predetermined quantity to be conveyed, and in that - in another method step, the piston reduces the working space (A) to such an extent that the quantity to be metered remains in the working space (A), wherein at the same time a valve is opened so that the separated gas volume in the working space (A) and/or the excess fluid medium can flow through the piston out of the working space (A), wherein to this end the piston has at least one axially extending through-channel which is connected to a return line and at least the controllable valve and/or a non-return valve is arranged in the through-channel and/or the return line . - in a first method step, a specific filling quantity of the fluid medium is conveyed into the working space (A), wherein the filling quantity is greater than the predetermined quantity to be conveyed, and in that - in another method step, the piston reduces the working space (A) to such an extent that the quantity to be metered remains in the working space (A), wherein at the same time a valve is opened so that the separated gas volume in the working space (A) and/or the excess fluid medium can flow through the piston out of the working space (A), wherein to this end the piston has at least one axially extending through-channel which is connected to a return line and at least the controllable valve and/or a non-return valve is arranged in the through-channel and/or the return line .
An exercise device for mounting between a door (D) and a door jamb (J) of a closed door, said exercise device comprising: an anchor having a first portion , an enlarged portion , and an elongated portion that extends between said first portion and said enlarged portion , and: a pair of elongated members each with a lengthening mechanism on the elongated member, where each of the pair of elongated members is inelastic and has a length (L) that extends from a corresponding grip to a member , where, when said anchor is mounted to the closed door (D): said elongated portion extends from a first side of the closed (D) door to a second side of the closed door, said enlarged portion is not passable through the closed door, and said elongated portion extends away from said door by a distance, characterised in that : each of said members is sewn to said first portion . a pair of elongated members each with a lengthening mechanism on the elongated member, where each of the pair of elongated members is inelastic and has a length (L) that extends from a corresponding grip to a member , where, when said anchor is mounted to the closed door (D): said elongated portion extends from a first side of the closed (D) door to a second side of the closed door, said enlarged portion is not passable through the closed door, and said elongated portion extends away from said door by a distance, said elongated portion extends from a first side of the closed (D) door to a second side of the closed door, said enlarged portion is not passable through the closed door, and said elongated portion extends away from said door by a distance, characterised in that : each of said members is sewn to said first portion .
A positive electrode plate, comprising: a positive electrode current collector and a positive electrode active material layer disposed on at least one surface of the positive electrode current collector; characterized in that , the positive electrode active material layer comprises a first positive electrode active material represented by chemical formula and a second positive electrode active material represented by chemical formula : Li 1+x Na a Co 1+y Al z Mg p Ti u M v O 2+w , wherein in chemical formula , M comprises at least one of Zr, La, or Y, - 0.1<x<0.1, 0<a<0.005, -0.05<y<0.05, 0.01<z<0.05, 0.001<p<0.01, 0<u<0.005, 0<v<0.005, and -0.05<w<0.05; and Li 2+r Na s N 1+q O 2+t , wherein in chemical formula , -0.2<r<0.2, 0<s≤0.05, -0.1<q<0.1, -0.05<t<0.05, and N comprises at least one of Ni, Cu, Mn, Fe, or Co, and wherein a mass ratio of the first positive electrode active material to the second positive electrode active material ranges from 4:1 to 200:1. the positive electrode active material layer comprises a first positive electrode active material represented by chemical formula and a second positive electrode active material represented by chemical formula : Li 1+x Na a Co 1+y Al z Mg p Ti u M v O 2+w , wherein in chemical formula , M comprises at least one of Zr, La, or Y, - 0.1<x<0.1, 0<a<0.005, -0.05<y<0.05, 0.01<z<0.05, 0.001<p<0.01, 0<u<0.005, 0<v<0.005, and -0.05<w<0.05; and Li 2+r Na s N 1+q O 2+t , wherein in chemical formula , -0.2<r<0.2, 0<s≤0.05, -0.1<q<0.1, -0.05<t<0.05, and N comprises at least one of Ni, Cu, Mn, Fe, or Co, and wherein a mass ratio of the first positive electrode active material to the second positive electrode active material ranges from 4:1 to 200:1.
Method for checking the formation of beads of tyres in a tyre production line, the method comprising: - arranging a carcass sleeve having end flaps turned up around respective annular anchoring structures in order to form respective beads ; - rotating said carcass sleeve around an axis thereof ; - during said rotation, acquiring at least an image representative of at least a circumferential portion of radially external surface of said carcass sleeve , said at least a circumferential portion comprising respective edges of said end flaps turned up ; - processing said at least an image in order to determine a circumferential trend of an axial distance (sx, dx) of each edge from a reference plane on said carcass sleeve orthogonal with said axis ; - detecting possible defects of said beads as a function of said trend. - arranging a carcass sleeve having end flaps turned up around respective annular anchoring structures in order to form respective beads ; - rotating said carcass sleeve around an axis thereof ; - during said rotation, acquiring at least an image representative of at least a circumferential portion of radially external surface of said carcass sleeve , said at least a circumferential portion comprising respective edges of said end flaps turned up ; - processing said at least an image in order to determine a circumferential trend of an axial distance (sx, dx) of each edge from a reference plane on said carcass sleeve orthogonal with said axis ; - detecting possible defects of said beads as a function of said trend.
An expandable pillow cover comprising: a first layer ; a second layer positioned opposite to the first layer to define an interior space therebetween, the first and second layers being joined to one another at at least junctures of two opposing openable sides and two other sides, the two opposing openable sides being between the two other sides, wherein the openable sides and the other sides define four corners at which the first and second layers are joined to one another; gusset panels positioned between the first layer and the second layer in the interior space and adjacent the two opposing openable sides; and two fasteners for fastening the first and second layers, one at each of the two opposing openable sides, the two fasteners movable independently of each other between an open unfastened condition and a closed fastened condition, wherein the cover is adjustable between a first condition where both fasteners are fastened to contract its respective gusset panel and the interior space has a first volume, and a second condition where one or both of the fasteners are unfastened to expand its respective gusset panel and the interior space has a second volume greater than the first volume. a first layer ; a second layer positioned opposite to the first layer to define an interior space therebetween, the first and second layers being joined to one another at at least junctures of two opposing openable sides and two other sides, the two opposing openable sides being between the two other sides, wherein the openable sides and the other sides define four corners at which the first and second layers are joined to one another; gusset panels positioned between the first layer and the second layer in the interior space and adjacent the two opposing openable sides; and two fasteners for fastening the first and second layers, one at each of the two opposing openable sides, the two fasteners movable independently of each other between an open unfastened condition and a closed fastened condition, wherein the cover is adjustable between a first condition where both fasteners are fastened to contract its respective gusset panel and the interior space has a first volume, and a second condition where one or both of the fasteners are unfastened to expand its respective gusset panel and the interior space has a second volume greater than the first volume.
A stator for a continuously variable transmission, CVT positioning a plurality of tiltable planet assemblies, each tiltable planet assembly including a planet and a planet axle , wherein tilting the planet axle changes a transmission ratio of the CVT, the stator comprising: a plurality of guide slots , each guide slot configured for receiving an end of a planet axle having a diameter, each guide slot comprising: first and second surfaces for contact with the end of the planet axle, the first and second surfaces separated by a first width to form a desired clearance width based on the diameter of the planet axle; and a third surface located radially inward of the first and second surfaces for limiting the travel of the end of the planet axle, wherein the radial guide slot is formed having a second width at a radially outward opening, the second width being less than the diameter of the planet axle. first and second surfaces for contact with the end of the planet axle, the first and second surfaces separated by a first width to form a desired clearance width based on the diameter of the planet axle; and a third surface located radially inward of the first and second surfaces for limiting the travel of the end of the planet axle, wherein the radial guide slot is formed having a second width at a radially outward opening, the second width being less than the diameter of the planet axle.
A photoelectric conversion apparatus (DEV) including a light-receiving region and a light-shielded region , comprising: a semiconductor layer in which a first plurality of photoelectric converters are arranged in the light-receiving region and a second plurality of photoelectric converters are arranged in the light-shielded region ; a light-shielding wall arranged above the semiconductor layer and configured to define a plurality of apertures respectively corresponding to the first plurality of photoelectric converters (iie); and a light-shielding film arranged above the semiconductor layer , wherein the light-shielding film includes a first portion extending along a principal surface of the semiconductor layer to cover the second plurality of photoelectric converters , the first portion having a lower surface on a side of the semiconductor layer and an upper surface on an opposite side of the lower surface, and wherein the light-shielding wall includes a second portion whose distance from the semiconductor layer is larger than a distance between the upper surface and the principal surface, characterised in that a light absorption coefficient of a material forming the first portion is larger than a light absorption coefficient of a material forming the second portion . a semiconductor layer in which a first plurality of photoelectric converters are arranged in the light-receiving region and a second plurality of photoelectric converters are arranged in the light-shielded region ; a light-shielding wall arranged above the semiconductor layer and configured to define a plurality of apertures respectively corresponding to the first plurality of photoelectric converters (iie); and a light-shielding film arranged above the semiconductor layer , wherein the light-shielding film includes a first portion extending along a principal surface of the semiconductor layer to cover the second plurality of photoelectric converters , the first portion having a lower surface on a side of the semiconductor layer and an upper surface on an opposite side of the lower surface, and wherein the light-shielding wall includes a second portion whose distance from the semiconductor layer is larger than a distance between the upper surface and the principal surface, characterised in that a light absorption coefficient of a material forming the first portion is larger than a light absorption coefficient of a material forming the second portion .
An eyewear frame made using a 3D printing process, said frame comprising: a front frame; an end piece integrally attached to said front frame; at least one temple integrally attached to said end piece by at least one crossed-spring hinge disposed between said end piece and said temple, the crossed-spring hinge connecting the end piece with the temple, wherein the crossed-spring hinge comprises a first hinge leg and a second hinge leg, wherein said first and second leg form a crossed leaf rotary flexure, wherein the eyewear frame is a 3D printed eyewear frame wherein the at least one crossed-spring hinge is integrated. a front frame; an end piece integrally attached to said front frame; at least one temple integrally attached to said end piece by at least one crossed-spring hinge disposed between said end piece and said temple, the crossed-spring hinge connecting the end piece with the temple, wherein the crossed-spring hinge comprises a first hinge leg and a second hinge leg, wherein said first and second leg form a crossed leaf rotary flexure, wherein the eyewear frame is a 3D printed eyewear frame wherein the at least one crossed-spring hinge is integrated.
A source for generating ionizing radiation, comprising: • a vacuum chamber ; • a cathode that is able to transmit an electron beam into the chamber ; • an anode that receives the electron beam and that comprises a target that is able to generate ionizing radiation from the energy received from the electron beam ; • an electrode that is placed in the vicinity of the cathode and that allows the electron beam to be focused; • a stopper (32; 170) ensuring the seal tightness of the vacuum chamber , characterized in that the source further comprises a mechanical part that is made of dielectric material and that forms a portion of the vacuum chamber, and in that the stopper (32; 170) is fastened to the mechanical part by means of a conductive brazing film that is used to electrically connect the electrode . • a vacuum chamber ; • a cathode that is able to transmit an electron beam into the chamber ; • an anode that receives the electron beam and that comprises a target that is able to generate ionizing radiation from the energy received from the electron beam ; • an electrode that is placed in the vicinity of the cathode and that allows the electron beam to be focused; • a stopper (32; 170) ensuring the seal tightness of the vacuum chamber ,
An aerosol-generating material comprising an amorphous solid, the amorphous solid comprising: - 0.1-80 wt% of menthol; - 1-60 wt% of a gelling agent, the gelling agent comprising calcium-crosslinked alginate which comprises α-(1-4)-linked L-guluronate (G) units; and - 0.1-50 wt% of an aerosol-former material; wherein a molar ratio of Ca 2+ cations to G units is from 0.2:1 to 1:1, preferably wherein the molar ratio of calcium to G units is from 0.3:1 to 0.5:1. - 0.1-80 wt% of menthol; - 1-60 wt% of a gelling agent, the gelling agent comprising calcium-crosslinked alginate which comprises α-(1-4)-linked L-guluronate (G) units; and - 0.1-50 wt% of an aerosol-former material;
A method of making a relief printing element in a liquid photopolymer platemaking process, wherein a layer of liquid photopolymer is applied over a coverfilm positioned on a negative on a glass platen and a backing sheet is applied over the liquid photopolymer layer, the method comprising the steps of: a) selectively exposing the layer of liquid photopolymer to actinic radiation through the negative to crosslink and cure portions of the layer of liquid photopolymer and create the relief image therein, wherein portions of the layer of liquid photopolymer are not crosslinked and are uncured; b) reclaiming uncured portions of the layer of liquid photopolymer for reuse in the platemaking process, wherein the step of reclaiming uncured portions of the layer of liquid photopolymer comprises: i) heating the relief printing element to decrease the viscosity of the uncured portions of the layer of liquid photopolymer; and ii) removing uncured portions of the layer of liquid photopolymer from the relief printing element; and c) blotting the relief printing element to remove any uncured liquid photopolymer remaining on the relief printing element after the reclamation step; wherein uncured portions of the layers of liquid photopolymer are removed without washing the relief printing element with water or another solvent. a) selectively exposing the layer of liquid photopolymer to actinic radiation through the negative to crosslink and cure portions of the layer of liquid photopolymer and create the relief image therein, wherein portions of the layer of liquid photopolymer are not crosslinked and are uncured; b) reclaiming uncured portions of the layer of liquid photopolymer for reuse in the platemaking process, wherein the step of reclaiming uncured portions of the layer of liquid photopolymer comprises: i) heating the relief printing element to decrease the viscosity of the uncured portions of the layer of liquid photopolymer; and ii) removing uncured portions of the layer of liquid photopolymer from the relief printing element; and i) heating the relief printing element to decrease the viscosity of the uncured portions of the layer of liquid photopolymer; and ii) removing uncured portions of the layer of liquid photopolymer from the relief printing element; and c) blotting the relief printing element to remove any uncured liquid photopolymer remaining on the relief printing element after the reclamation step; wherein uncured portions of the layers of liquid photopolymer are removed without washing the relief printing element with water or another solvent.
A vaporizer assembly for an electronic vaping device , the vaporizer assembly comprising: a heating element ; a pre-vapor formulation reservoir configured to contain a pre-vapor formulation; a pre-vapor formulation level indicator including an indicator ; and at least one processor configured to: determine a difference between a first duty cycle of power supplied to the heating element and a second duty cycle of power supplied to the heating element ; and adjust the indicator based on the determined duty cycle difference. a heating element ; a pre-vapor formulation reservoir configured to contain a pre-vapor formulation; a pre-vapor formulation level indicator including an indicator ; and at least one processor configured to: determine a difference between a first duty cycle of power supplied to the heating element and a second duty cycle of power supplied to the heating element ; and adjust the indicator based on the determined duty cycle difference. determine a difference between a first duty cycle of power supplied to the heating element and a second duty cycle of power supplied to the heating element ; and adjust the indicator based on the determined duty cycle difference.