mhurhangee/patent-ind-claim-en huggingface dataset:
Value document having a security marking in the form of at least two luminescing substances, wherein - the luminescing substances (A, B) are respectively present in a defined relative quantitative share, based on the total quantity of the luminescing substances (A, B), - the luminescing substances (A, B) are jointly excitable by one excitation pulse, - the time courses of the intensities of the emitted radiations of the luminescing substances (A, B) are different from each other, characterized in that - at least one luminescing substance (A, B) has a non-monoexponential time course of the intensity of the emitted radiation. - the luminescing substances (A, B) are respectively present in a defined relative quantitative share, based on the total quantity of the luminescing substances (A, B), - the luminescing substances (A, B) are jointly excitable by one excitation pulse, - the time courses of the intensities of the emitted radiations of the luminescing substances (A, B) are different from each other, characterized in that - at least one luminescing substance (A, B) has a non-monoexponential time course of the intensity of the emitted radiation.
A cover assembly (70; 72) for covering and electrically isolating an electrically conductive fastener (64; 64a, 64b) suitable for joining power conductors, the cover assembly comprising: a plate element (80; 100) manufactured from metal and having at least one plate opening (82; 102a; 102b), the at least one plate opening (82; 102a, 102b) being configured to allow the passage of a part of the fastener; and an electrically insulating cap element (90; 110) having an inner cap edge (92; 112) followed by an interior recess , characterized in that said plate element has an outer beveled edge , and in that the cap element (90; 110) and the plate element (80; 100) are configured to be held together upon the inner cap edge (92; 112) of the cap element (90; 110) snapping over the outer beveled edge (84; 104a, 104b) of the plate element (80; 100) by the outer beveled edge (84; 104a, 104b) of the plate element (80; 100) fitting into the interior recess of the cap element (90; 110) and the inner cap edge (92; 112) of the cap element (90; 110) fitting below the outer beveled edge (84; 104a, 104b) of the plate element (80; 100) such that the cap element (90; 110) may be removed from the plate element (80; 100) by prying the cap element (90; 100) upwards, away from the plate element (80; 100). a plate element (80; 100) manufactured from metal and having at least one plate opening (82; 102a; 102b), the at least one plate opening (82; 102a, 102b) being configured to allow the passage of a part of the fastener; and an electrically insulating cap element (90; 110) having an inner cap edge (92; 112) followed by an interior recess , characterized in that said plate element has an outer beveled edge , and in that the cap element (90; 110) and the plate element (80; 100) are configured to be held together upon the inner cap edge (92; 112) of the cap element (90; 110) snapping over the outer beveled edge (84; 104a, 104b) of the plate element (80; 100) by the outer beveled edge (84; 104a, 104b) of the plate element (80; 100) fitting into the interior recess of the cap element (90; 110) and the inner cap edge (92; 112) of the cap element (90; 110) fitting below the outer beveled edge (84; 104a, 104b) of the plate element (80; 100) such that the cap element (90; 110) may be removed from the plate element (80; 100) by prying the cap element (90; 100) upwards, away from the plate element (80; 100).
Carrier element for a toothbrush with a handle and a head part, comprising a soft-elastic structure arranged on a plate-shaped carrier element , wherein the plate-shaped carrier element has a front side and a rear side and is made of a hard material that is harder than that of the soft-elastic structure , wherein the plate-shaped carrier element and/or the soft-elastic structure has cutouts through which conventional bristle filaments are guided and are melted for fastening them to the plate-shaped carrier element via their rear ends directed towards the head part in the application case, wherein the soft-elastic structure comprises at least one soft-elastic cleaning element, wherein the carrier element has a welding edge, and wherein the welding surface, defined by the welding edge, between the carrier element and the head part is held free from the soft-elastic structure, and wherein the soft-elastic structure and the carrier element are produced by a two-component injection moulding method.
A control device that controls movement of a transporting unit connected to a moving unit that is movable, the control device comprising: a first control unit that is configured to control a movement speed of the moving unit; and a second control unit that is configured to move the transporting unit with respect to the moving unit according to acceleration or deceleration of the moving unit, the control device further comprising: a judgment unit that is configured to judge characteristics of a transportation target (CO) that is transported with the transporting unit; and a determination unit that is configured to determinate the movement speed or an acceleration of the moving unit on a movement path thereof on the basis of the characteristics before the moving unit starts moving. a first control unit that is configured to control a movement speed of the moving unit; and a second control unit that is configured to move the transporting unit with respect to the moving unit according to acceleration or deceleration of the moving unit, the control device further comprising: a judgment unit that is configured to judge characteristics of a transportation target (CO) that is transported with the transporting unit; and a determination unit that is configured to determinate the movement speed or an acceleration of the moving unit on a movement path thereof on the basis of the characteristics before the moving unit starts moving. a judgment unit that is configured to judge characteristics of a transportation target (CO) that is transported with the transporting unit; and a determination unit that is configured to determinate the movement speed or an acceleration of the moving unit on a movement path thereof on the basis of the characteristics before the moving unit starts moving.
Identification means for a locking system having a transponder and an antenna , the antenna having a core and a coil wrapped around the core , the core of the antenna having a plurality of dielectric layers which lie one above the other in a sandwich-like manner and have high permeability, the layers being electrically insulated from one another, and the core of the antenna and the transponder being designed to form a structural unit as a transponder element , characterized in that the dielectric layer has an insulation layer , an adhesive layer and a ferrite layer arranged between the insulation layer and the adhesive layer .
A hot runner nozzle for injection molds comprising a nozzle pipe in which a passage channel for the passage of a plastic melt is formed, wherein the passage channel extends along a center axis from a rear side channel inlet side up to a front side nozzle tip and opens in at least one outlet channel in the nozzle tip through which the plastic melt can be driven, wherein a contact collar for a sealing contact with the injection mold is provided, and wherein at least the contact collar , the nozzle tip , and/or the nozzle pipe are manufactured by means of a generative production process as a single part base member , wherein a thermal barrier groove having at least one undercut and at least partially running around the nozzle tip is introduced between the contact collar and the nozzle tip , characterized in that a sensor mount into which a temperature measuring sensor can be inserted is introduced in the base member in the region of the nozzle tip and/or below the tapering nozzle tip in the region of the thermal barrier groove , with the sensor mount interrupting the peripheral thermal barrier groove since the sensor mount projects into the region of the thermal barrier groove and the thermal barrier groove consequently does not surround the nozzle tip over the full periphery, but rather so that the thermal barrier groove is interrupted in the region of the sensor mount . wherein a thermal barrier groove having at least one undercut and at least partially running around the nozzle tip is introduced between the contact collar and the nozzle tip , characterized in that a sensor mount into which a temperature measuring sensor can be inserted is introduced in the base member in the region of the nozzle tip and/or below the tapering nozzle tip in the region of the thermal barrier groove , with the sensor mount interrupting the peripheral thermal barrier groove since the sensor mount projects into the region of the thermal barrier groove and the thermal barrier groove consequently does not surround the nozzle tip over the full periphery, but rather so that the thermal barrier groove is interrupted in the region of the sensor mount .
A sleeping bag for use by a user, the sleeping bag comprising: a bottom sheet , having a pair of opposing lateral flaps coupled to corresponding medial edges of the bottom sheet , each of the lateral flaps have a lateral edge , wherein the bottom sheet is sized and shaped to underlie the user when using the sleeping bag, wherein the bottom sheet is configured to be securable to a sleeping pad ; and an insulated top cover having opposing lateral edges , an outer surface adapted to face away from the user when occupying the sleeping bag, a headward portion selectively moveable between a wrapped configuration and an expanded configuration, and attachment paths disposed on the outer surface , each attachment path is displaced medially from the opposing lateral edges of the insulated top cover , the headward portion of the top cover further including laterally disposed portions arranged to extend upward and away from corresponding lateral edges of the sleeping pad ; wherein the pair of lateral flaps of the bottom sheet are releasably coupled to the outer surface of the top cover along the attachment paths ; wherein, in a sleeping bag configuration, the pair of lateral flaps of the bottom sheet are coupled to the attachment paths of the top cover , wherein the laterally disposed portions of the top cover are defined as a portion of the top cover located between the attachment paths and the respective lateral edge of the top cover , wherein the laterally disposed portions of the top cover extend upward and laterally away from the corresponding lateral edges of the sleeping pad . a bottom sheet , having a pair of opposing lateral flaps coupled to corresponding medial edges of the bottom sheet , each of the lateral flaps have a lateral edge , wherein the bottom sheet is sized and shaped to underlie the user when using the sleeping bag, wherein the bottom sheet is configured to be securable to a sleeping pad ; and an insulated top cover having opposing lateral edges , an outer surface adapted to face away from the user when occupying the sleeping bag, a headward portion selectively moveable between a wrapped configuration and an expanded configuration, and attachment paths disposed on the outer surface , each attachment path is displaced medially from the opposing lateral edges of the insulated top cover , the headward portion of the top cover further including laterally disposed portions arranged to extend upward and away from corresponding lateral edges of the sleeping pad ; wherein the pair of lateral flaps of the bottom sheet are releasably coupled to the outer surface of the top cover along the attachment paths ; wherein, in a sleeping bag configuration, the pair of lateral flaps of the bottom sheet are coupled to the attachment paths of the top cover , wherein the laterally disposed portions of the top cover are defined as a portion of the top cover located between the attachment paths and the respective lateral edge of the top cover , wherein the laterally disposed portions of the top cover extend upward and laterally away from the corresponding lateral edges of the sleeping pad .
A harness for breathing apparatus, comprising: a structural support member for supporting a vessel of breathable gas; a waist belt ; and a pivot joint mechanism coupling the structural support member to the waist belt and permitting pivoting movement between the structural support member and the waist belt when a user bends forwards and back at the waist, wherein the harness further comprises a release mechanism to decouple the structural support member from the waist belt ; the release mechanism comprising: a pivot pin of the pivot joint mechanism which defines a pivot axis of the pivot joint mechanism , and is slidably removable along the pivot axis; a release strap coupled to the pivot pin and configured to apply an axial force to slidably remove the pivot pin from the pivot joint mechanism when the release strap is pulled; and a detent for exerting a retaining force to resist axial movement of the pivot pin . a structural support member for supporting a vessel of breathable gas; a waist belt ; and a pivot joint mechanism coupling the structural support member to the waist belt and permitting pivoting movement between the structural support member and the waist belt when a user bends forwards and back at the waist, wherein the harness further comprises a release mechanism to decouple the structural support member from the waist belt ; the release mechanism comprising: a pivot pin of the pivot joint mechanism which defines a pivot axis of the pivot joint mechanism , and is slidably removable along the pivot axis; a release strap coupled to the pivot pin and configured to apply an axial force to slidably remove the pivot pin from the pivot joint mechanism when the release strap is pulled; and a detent for exerting a retaining force to resist axial movement of the pivot pin . a pivot pin of the pivot joint mechanism which defines a pivot axis of the pivot joint mechanism , and is slidably removable along the pivot axis; a release strap coupled to the pivot pin and configured to apply an axial force to slidably remove the pivot pin from the pivot joint mechanism when the release strap is pulled; and a detent for exerting a retaining force to resist axial movement of the pivot pin .
An abrasive article (200; 300; 400; 500) comprising: a flexible abrasive layer having opposed first and second major surfaces; a permeable backing bonded to the second major surface, the permeable backing being resiliently compressible; a plurality of slits (230; 330; 430; 530) disposed on the first major surface and penetrating through the flexible abrasive layer and at least partially through the permeable backing ; and a structured member disposed between the flexible abrasive layer and the permeable backing , wherein the structured member and the flexible abrasive layer have respective three-dimensional patterns of discrete, isolated wells that conform with each other. a flexible abrasive layer having opposed first and second major surfaces; a permeable backing bonded to the second major surface, the permeable backing being resiliently compressible; a plurality of slits (230; 330; 430; 530) disposed on the first major surface and penetrating through the flexible abrasive layer and at least partially through the permeable backing ; and a structured member disposed between the flexible abrasive layer and the permeable backing , wherein the structured member and the flexible abrasive layer have respective three-dimensional patterns of discrete, isolated wells that conform with each other.
A method for estimating local topography of a sample including at least one pattern , the method comprising: - for each pattern of the sample : ∘ a step of acquiring, by a scanning electron microscope , a plurality of images of the pattern , the images being taken at different angles of incidence ; ∘ for each image acquired: ▪ a step of calculating a grey level profile along a given axis ; ▪ a step of placing a plurality of primary descriptors (A, B, C, D, E) on the greyscale profile calculated; ▪ a step of calculating secondary descriptors from the primary descriptors (A, B, C, D, E); ▪ a step of using a mathematical model to calculate primary topographic quantities from the secondary descriptors; ∘ a step of estimating local topography of the pattern consisting in using the mathematical model to calculate secondary topographic quantities from the primary topographic quantities and the secondary descriptors previously calculated. - for each pattern of the sample : ∘ a step of acquiring, by a scanning electron microscope , a plurality of images of the pattern , the images being taken at different angles of incidence ; ∘ for each image acquired: ▪ a step of calculating a grey level profile along a given axis ; ▪ a step of placing a plurality of primary descriptors (A, B, C, D, E) on the greyscale profile calculated; ▪ a step of calculating secondary descriptors from the primary descriptors (A, B, C, D, E); ▪ a step of using a mathematical model to calculate primary topographic quantities from the secondary descriptors; ∘ a step of estimating local topography of the pattern consisting in using the mathematical model to calculate secondary topographic quantities from the primary topographic quantities and the secondary descriptors previously calculated. ∘ a step of acquiring, by a scanning electron microscope , a plurality of images of the pattern , the images being taken at different angles of incidence ; ∘ for each image acquired: ▪ a step of calculating a grey level profile along a given axis ; ▪ a step of placing a plurality of primary descriptors (A, B, C, D, E) on the greyscale profile calculated; ▪ a step of calculating secondary descriptors from the primary descriptors (A, B, C, D, E); ▪ a step of using a mathematical model to calculate primary topographic quantities from the secondary descriptors; ▪ a step of calculating a grey level profile along a given axis ; ▪ a step of placing a plurality of primary descriptors (A, B, C, D, E) on the greyscale profile calculated; ▪ a step of calculating secondary descriptors from the primary descriptors (A, B, C, D, E); ▪ a step of using a mathematical model to calculate primary topographic quantities from the secondary descriptors; ∘ a step of estimating local topography of the pattern consisting in using the mathematical model to calculate secondary topographic quantities from the primary topographic quantities and the secondary descriptors previously calculated.
A subtractive color change system for displaying a selected color to a viewer, the system comprising; a layered assembly comprising a first transparent panel (R) of a first primary color, a second transparent panel (G) of a second primary color, a third transparent panel (B) of a third primary color, and a fourth transparent panel (K) of a key color, wherein the key color is fluorescent; a fixed-color background anterior of the layered assembly; a control unit, implemented as a circuit, configured to individually control the intensities and values of the primary color panels to render a color, wherein the control unit receives electric inputs and sends signals in the form of current changes and/or voltage changes to the transparent panels (R, G, B, K) to control the intensities and values of the primary color of the transparent panels (R, G, B, K), to reduce differences between the color rendered and the selected color, and to display the selected color to the viewer, wherein each transparent panel (R, G, B, K) comprises electrochromic compounds and polymers, and wherein changes to the intensity and value of each panel (R, G, B, K) are made in response to electrical stimulation.
A product composition comprising: a discrete particle of a mixture composition, wherein the mixture composition comprises a surfactant wherein the surfactant is a cationic surfactant, a high melting point fatty compound and a benefit agent other than the surfactant and the high melting point fatty compound; and an aqueous base composition comprising a surfactant, a high melting point fatty compound, and an aqueous carrier, wherein the surfactant contained in the aqueous base composition is a cationic surfactant, wherein the amount of a detersive surfactant selected from anionic surfactants, zwitterionic surfactant, amphoteric surfactant, and combinations thereof in the aqueous base composition is 0.1% by weight or less; wherein the discrete particle is dispersed in the aqueous base composition, wherein the discrete particle can be observed as discrete particle in the product composition visually, by microscope, however, the discrete particle does not show maltese cross sign when measured by polarized light microscopy; wherein the cationic surfactant is selected from mono-long alkyl quaternized ammonium salt; a combination of mono-long alkyl quaternized ammonium salt and di-long alkyl quaternized ammonium salt; mono-long alkyl amine; or a combination of mono-long alkyl amine and di-long alkyl quaternized ammonium salt; and wherein the high melting point fatty compound has a melting point of 25°C or higher, wherein the high melting point fatty compound is selected from the group consisting of fatty alcohols, fatty acids, and mixtures thereof. a discrete particle of a mixture composition, wherein the mixture composition comprises a surfactant wherein the surfactant is a cationic surfactant, a high melting point fatty compound and a benefit agent other than the surfactant and the high melting point fatty compound; and an aqueous base composition comprising a surfactant, a high melting point fatty compound, and an aqueous carrier, wherein the surfactant contained in the aqueous base composition is a cationic surfactant, wherein the amount of a detersive surfactant selected from anionic surfactants, zwitterionic surfactant, amphoteric surfactant, and combinations thereof in the aqueous base composition is 0.1% by weight or less; wherein the discrete particle is dispersed in the aqueous base composition, wherein the discrete particle can be observed as discrete particle in the product composition visually, by microscope, however, the discrete particle does not show maltese cross sign when measured by polarized light microscopy; wherein the cationic surfactant is selected from mono-long alkyl quaternized ammonium salt; a combination of mono-long alkyl quaternized ammonium salt and di-long alkyl quaternized ammonium salt; mono-long alkyl amine; or a combination of mono-long alkyl amine and di-long alkyl quaternized ammonium salt; and wherein the high melting point fatty compound has a melting point of 25°C or higher, wherein the high melting point fatty compound is selected from the group consisting of fatty alcohols, fatty acids, and mixtures thereof.