mhurhangee/ep-ind-claims huggingface dataset:
Method for connecting two hollow chamber profiles (1, 2), composed of plastic, in the mitre region, - wherein the two hollow chamber profiles (1, 2) have equal structural depths (4, 5) but different visible widths (6, 7), - wherein the two hollow chamber profiles (1, 2) each have on their one side (inner side 8, 9) an overlap (10, 11) and a wall (14, 15) which forms the visible surface of this side (inner visible surface 12, 13) and which covers the overlap (10, 11), - wherein the two hollow chamber profiles (1, 2) have a wall (outer walls 31, 32) which forms the visible surface of the other side (outer visible surfaces 29, 30), comprising the following method steps: - cutting to length or trimming the hollow chamber profiles (1, 2) at 45° in relation to the longitudinal extent to form a mitre surface; - welding the hollow chamber profiles (1, 2) to one another in the mitre region; - removing a sub-region of the welded corner by means of machining, wherein - the wall (14, 15) covering the overlap (10, 11) remains as a first scarf, and - a part of the wall (outer walls 31, 32) forming the visible surface of the other side (outer visible surfaces 29, 30) projects beyond the profile region, set back therebehind, as a further scarf; - capping the milled mitre region by means of an end cap. - wherein the two hollow chamber profiles (1, 2) have equal structural depths (4, 5) but different visible widths (6, 7), - wherein the two hollow chamber profiles (1, 2) each have on their one side (inner side 8, 9) an overlap (10, 11) and a wall (14, 15) which forms the visible surface of this side (inner visible surface 12, 13) and which covers the overlap (10, 11), - wherein the two hollow chamber profiles (1, 2) have a wall (outer walls 31, 32) which forms the visible surface of the other side (outer visible surfaces 29, 30), - cutting to length or trimming the hollow chamber profiles (1, 2) at 45° in relation to the longitudinal extent to form a mitre surface; - welding the hollow chamber profiles (1, 2) to one another in the mitre region; - removing a sub-region of the welded corner by means of machining, wherein - the wall (14, 15) covering the overlap (10, 11) remains as a first scarf, and - a part of the wall (outer walls 31, 32) forming the visible surface of the other side (outer visible surfaces 29, 30) projects beyond the profile region, set back therebehind, as a further scarf; - the wall (14, 15) covering the overlap (10, 11) remains as a first scarf, and - a part of the wall (outer walls 31, 32) forming the visible surface of the other side (outer visible surfaces 29, 30) projects beyond the profile region, set back therebehind, as a further scarf; - capping the milled mitre region by means of an end cap.
A method for providing marks on extruded films, in particular on stretched films, which are exiting an extrusion lip of a film extruder, comprising the step of: directing at least one invisible substance that is invisible to the human eye to a surface of the film exiting the extrusion lip of the film extruder using at least one nozzle means, in such a manner that the invisible substance creates a local mark on the extruded film, and characterized in that the invisible substance is a fluorescent ink.
An applicator for applying a hair treatment composition to the hair, wherein said applicator comprises a plate and a well, wherein said plate and well are movably joined by a connection so that the applicator may alternate between a closed and an open state, and wherein said plate has an external surface and an internal surface, and said internal surface comprises at least one hair orientation means (40; 70, 71) which extends beyond said internal surface towards said well, and wherein said well comprises a rim and wherein said applicator further comprises a fluid metering means, wherein said fluid metering means comprises a lower metering means positioned on said rim of said well, and an upper metering means positioned on said internal surface of said plate, and wherein when said applicator is in said closed state, said lower metering means and said upper metering means are substantially juxtaposed to provide said fluid metering means; characterized in that: said lower metering means and said upper metering means both comprise two sets (50, 50'; 60, 60') of resilient strips; and in that each of said sets comprises at least two of said strips. said lower metering means and said upper metering means both comprise two sets (50, 50'; 60, 60') of resilient strips; and in that each of said sets comprises at least two of said strips.
A computer-implemented method for co-registration of angiography and intravascular images performed after an intravascular pullback, with the intravascular images being in the form of a sequence of images obtained while an intravascular imaging device has been pulled back through a vessel; two or more bi-dimensional angiography images of the vessel have been obtained from different perspectives when the intravascular imaging device was in its start of examination position; the method comprising the following steps: a) generating a three-dimensional reconstruction of the trajectory of the intravascular imaging device within the vessel from the acquired two or more bi-dimensional angiography images; b) determining a first position of an element of the intravascular imaging device within the 3D reconstruction of the trajectory; c) correlating 3D positions of the element with corresponding points in the 15 reconstructed trajectory using information of the pull-back speed; d) correlating each intravascular image of the sequence with a corresponding spatial position within at least one of the bi-dimensional angiography images using back-projections of the corresponding 3D position on the angiography images. with the intravascular images being in the form of a sequence of images obtained while an intravascular imaging device has been pulled back through a vessel; two or more bi-dimensional angiography images of the vessel have been obtained from different perspectives when the intravascular imaging device was in its start of examination position; the method comprising the following steps: a) generating a three-dimensional reconstruction of the trajectory of the intravascular imaging device within the vessel from the acquired two or more bi-dimensional angiography images; b) determining a first position of an element of the intravascular imaging device within the 3D reconstruction of the trajectory; c) correlating 3D positions of the element with corresponding points in the 15 reconstructed trajectory using information of the pull-back speed; d) correlating each intravascular image of the sequence with a corresponding spatial position within at least one of the bi-dimensional angiography images using back-projections of the corresponding 3D position on the angiography images. a) generating a three-dimensional reconstruction of the trajectory of the intravascular imaging device within the vessel from the acquired two or more bi-dimensional angiography images; b) determining a first position of an element of the intravascular imaging device within the 3D reconstruction of the trajectory; c) correlating 3D positions of the element with corresponding points in the 15 reconstructed trajectory using information of the pull-back speed; d) correlating each intravascular image of the sequence with a corresponding spatial position within at least one of the bi-dimensional angiography images using back-projections of the corresponding 3D position on the angiography images.
A light-emitting device comprising at least: - a metal layer able to be heated and to propagate surface waves consecutive to the heating of the metal layer, the metal layer being structured such that it comprises several diffraction patterns (40a-40d, 44a-44d, 120) able to carry out a diffraction of the surface waves to free-space propagation modes, and wherein a synthetic hologram able to control the form of a light radiation intended to be emitted by the light-emitting device via controlling the wavefront intended to be emitted is coded such that the synthetic hologram corresponds to a phase image coded in each pixel by an offset of the position of one of the diffraction patterns (40a-40d, 44a-44d, 120) in relation to a reference position of said one of the diffraction patterns (40a-40d, 44a-44d, 120); - means (104, 124) able to heat the metal layer. - a metal layer able to be heated and to propagate surface waves consecutive to the heating of the metal layer, the metal layer being structured such that it comprises several diffraction patterns (40a-40d, 44a-44d, 120) able to carry out a diffraction of the surface waves to free-space propagation modes, and wherein a synthetic hologram able to control the form of a light radiation intended to be emitted by the light-emitting device via controlling the wavefront intended to be emitted is coded such that the synthetic hologram corresponds to a phase image coded in each pixel by an offset of the position of one of the diffraction patterns (40a-40d, 44a-44d, 120) in relation to a reference position of said one of the diffraction patterns (40a-40d, 44a-44d, 120); - means (104, 124) able to heat the metal layer.
Reactive adhesive system comprising (i) at least one first adhesive component A, comprising at least one reactive monomer or reactive resin (a) and a radical initiator (c); and (ii) at least one second reactive adhesive component B, in turn comprising at least one reactive monomer or reactive resin (a) and an activator (b), wherein the activator (b) comprises a manganese complex, iron complex or cobalt complex, in each case with as ligand a compound selected from porphyrin, porphyrazine or phthalocyanine or compounds with porphyrin, porphyrazine or phthalocyanine ring structure which carry fluorine, chlorine, bromine, iodine, methyl, ethyl, isopropyl, butyl, tert-butyl, OH, NH 2 or NO 2 substituents, wherein the first adhesive component A and/or the second adhesive component B further comprise a polymeric film former matrix (d) and wherein the first adhesive component A and the second adhesive component B are present in film form. (i) at least one first adhesive component A, comprising at least one reactive monomer or reactive resin (a) and a radical initiator (c); and (ii) at least one second reactive adhesive component B, in turn comprising at least one reactive monomer or reactive resin (a) and an activator (b), wherein the activator (b) comprises a manganese complex, iron complex or cobalt complex, in each case with as ligand a compound selected from porphyrin, porphyrazine or phthalocyanine or compounds with porphyrin, porphyrazine or phthalocyanine ring structure which carry fluorine, chlorine, bromine, iodine, methyl, ethyl, isopropyl, butyl, tert-butyl, OH, NH 2 or NO 2 substituents,
A system for launching and recovering an underwater vehicle, which system comprises a crane, two containers (12, 14) and a storage location for at least one underwater vehicle, characterized in that the crane is attached to the bottom of the first container and the storage location is provided in the second container, said first container being arranged on the second container during an operation of launching or an operation of recovering.
An article of luggage comprising: a first portion, said first portion comprises a generally box like structure having a rear panel, left side panel, right side panel, top panel and base panel, said panels,,,, are secured together, a second portion, the first and second portions (4,6) being hingedly connected for movement between a closed position and an open position, a zip fastener for releasably securing the first portion of the article of luggage to the second portion of the article of luggage in the closed position to define an internal storage volume between the first and second portions (4,6) of the article of luggage, and a retention means comprising a retention strap having first and second ends which are configured to be releasably secured together, the retention strap being configured to extend across the zip fastener; characterised in that the retention strap encircles the article of luggage and is in part permanently secured to one of the first and second portions (4,6) by stitching; and the article of luggage further comprises a side carry handle connected to the right side panel of the first portion, wherein the retention strap passes under the side carry handle. a first portion, said first portion comprises a generally box like structure having a rear panel, left side panel, right side panel, top panel and base panel, said panels,,,, are secured together, a second portion, the first and second portions (4,6) being hingedly connected for movement between a closed position and an open position, a zip fastener for releasably securing the first portion of the article of luggage to the second portion of the article of luggage in the closed position to define an internal storage volume between the first and second portions (4,6) of the article of luggage, and a retention means comprising a retention strap having first and second ends which are configured to be releasably secured together, the retention strap being configured to extend across the zip fastener; characterised in that the retention strap encircles the article of luggage and is in part permanently secured to one of the first and second portions (4,6) by stitching; and the article of luggage further comprises a side carry handle connected to the right side panel of the first portion, wherein the retention strap passes under the side carry handle.
A method performed by a computer system, for determining a user name likely to be associated with an attack, a configuration, or a vulnerability, comprising: obtaining first data which associates user names with individual IP addresses onto which the user names were logged in; obtaining second data which associates attacks, configuration changes, or vulnerabilities with individual IP addresses on which the attacks occurred or on which the configurations were changed or vulnerabilities existed; determining whether the user name from the first data was logged-in to the IP address at the time of the attack, configuration change or vulnerability existence; and associating the user names from the first data with the attacks, configurations or vulnerabilities from the second data based on having the same IP address during a log-in, wherein an individual user name is indicated as being associated with attacks which occurred or with configuration changes or vulnerabilities which existed while the individual user name was logged in instead of logged out for an IP address onto which the user logs in. obtaining first data which associates user names with individual IP addresses onto which the user names were logged in; obtaining second data which associates attacks, configuration changes, or vulnerabilities with individual IP addresses on which the attacks occurred or on which the configurations were changed or vulnerabilities existed; determining whether the user name from the first data was logged-in to the IP address at the time of the attack, configuration change or vulnerability existence; and associating the user names from the first data with the attacks, configurations or vulnerabilities from the second data based on having the same IP address during a log-in, wherein an individual user name is indicated as being associated with attacks which occurred or with configuration changes or vulnerabilities which existed while the individual user name was logged in instead of logged out for an IP address onto which the user logs in.
A winglet (102, 202, 302, 402, 502, 602, 706, 708, 710, 716, 718, 802) comprising: an, in use, vertical or tilted portion (114, 214, 908, 938) comprising a leading edge (108, 208, 906, 914, 924, 936, 944, 954); and a boundary layer interrupting device (100, 200, 300, 400, 700, 702, 704, 712, 714, 800, 900) coupled to a portion of the leading edge (108, 208, 906, 914, 924, 936, 944, 954), the boundary layer interrupting device (100, 200, 300, 400, 700, 702, 704, 712, 714, 800, 900) configured to alleviate a load on the winglet (102, 202, 302, 402, 502, 602, 706, 708, 710, 716, 718, 802), the boundary layer interrupting device (100, 200, 300, 400, 700, 702, 704, 712, 714, 800, 900) comprising a flow disruptor configured to interrupt a boundary layer at a threshold angle of attack, characterized in that the flow disruptor comprises a sharp edge that, in use, extends into a stagnation region of the winglet (102, 202, 302, 402, 502, 602, 706, 708, 710, 716, 718, 802) at a first angle of attack of the winglet (102, 202, 302, 402, 502, 602, 706, 708, 710, 716, 718, 802) and protrudes from the stagnation region at a second angle of attack of the winglet (102, 202, 302, 402, 502, 602, 706, 708, 710, 716, 718, 802). an, in use, vertical or tilted portion (114, 214, 908, 938) comprising a leading edge (108, 208, 906, 914, 924, 936, 944, 954); and a boundary layer interrupting device (100, 200, 300, 400, 700, 702, 704, 712, 714, 800, 900) coupled to a portion of the leading edge (108, 208, 906, 914, 924, 936, 944, 954), the boundary layer interrupting device (100, 200, 300, 400, 700, 702, 704, 712, 714, 800, 900) configured to alleviate a load on the winglet (102, 202, 302, 402, 502, 602, 706, 708, 710, 716, 718, 802), the boundary layer interrupting device (100, 200, 300, 400, 700, 702, 704, 712, 714, 800, 900) comprising a flow disruptor configured to interrupt a boundary layer at a threshold angle of attack,
A compressor of a turbine engine, the compressor including stator blades with shrouds, the shrouds being surrounded, at least in part, by a rotating structure and forming a shroud cavity therebetween, the compressor characterized in comprising: a plurality of tangential flow inducers disposed within the shroud cavity, wherein each tangential flow inducer comprises a surface disposed on the rotating structure that is configured to induce a tangential directional component to a flow of leakage exiting the shroud cavity and/or to increase the velocity of the flow of leakage exiting the shroud cavity, when rotated. a plurality of tangential flow inducers disposed within the shroud cavity, wherein each tangential flow inducer comprises a surface disposed on the rotating structure that is configured to induce a tangential directional component to a flow of leakage exiting the shroud cavity and/or to increase the velocity of the flow of leakage exiting the shroud cavity, when rotated.
An ion guide comprising: a plurality of electrodes; a first device arranged and adapted to apply a first RF voltage to at least some of said electrodes; and a second device arranged and adapted to apply one or more DC voltages to one or more electrodes in order to maintain one or more axial DC voltage barriers at one or more positions along the ion guide so as to confine at least some ions axially within said ion guide; a third device arranged and adapted to apply a second RF voltage to at least some of said electrodes, wherein two or more axially adjacent electrodes are maintained at the same first RF phase of said second RF voltage and two or more subsequent axially adjacent electrodes are maintained at the same second RF phase of said second RF voltage, said first RF phase of said second RF voltage being different from or opposite to said second RF phase of said second RF voltage; and a fourth device arranged and adapted to progressively increase, linearly increase or increase in a stepped or other manner the amplitude, height or depth and/or frequency of either said first RF voltage and/or said second RF voltage such that at least some of said ions overcome said one or more axial DC voltage barriers and emerge axially from said ion guide. a plurality of electrodes; a first device arranged and adapted to apply a first RF voltage to at least some of said electrodes; and a second device arranged and adapted to apply one or more DC voltages to one or more electrodes in order to maintain one or more axial DC voltage barriers at one or more positions along the ion guide so as to confine at least some ions axially within said ion guide; a third device arranged and adapted to apply a second RF voltage to at least some of said electrodes, wherein two or more axially adjacent electrodes are maintained at the same first RF phase of said second RF voltage and two or more subsequent axially adjacent electrodes are maintained at the same second RF phase of said second RF voltage, said first RF phase of said second RF voltage being different from or opposite to said second RF phase of said second RF voltage; and a fourth device arranged and adapted to progressively increase, linearly increase or increase in a stepped or other manner the amplitude, height or depth and/or frequency of either said first RF voltage and/or said second RF voltage such that at least some of said ions overcome said one or more axial DC voltage barriers and emerge axially from said ion guide.
A mounting device, particularly a mounting arm and/or stand, for medical purposes, particularly for mounting an attached device, particularly surgical mechatronic assistance systems and/or surgical instruments, having a proximal end for attaching the mounting device to a base and a distal end for receiving an attached device; at least one first and one second arm segment (12, 14), the first arm segment being connected to a first joint and the second arm segment being connected to a second joint, each joint (13, 15) being releasable and lockable; an operator control device for releasing and/or locking the corresponding joint (13, 15) for placing the mounting device in a desired predefined pose; and a first indicator unit (34, 100, 200, 250) disposed on the first joint, and a second indicator unit (36, 100, 200, 252) disposed on the second joint, the first and/or second indicator unit (34, 36, 100, 200, 250, 252) being configured to display at least one status of the mounting device and/or of an attached device, the first indicator unit (34, 100, 200, 250) and the second indicator unit (36, 100, 200, 252) being configured to emit IR radiation, characterized in that at least one display unit (34, 36 100) is implemented substantially annularly about a pivot axis of the corresponding joint (13, 15), and wherein the indicator units (34, 36, 100) are configured to indicate a direction in which at least one joint (13, 15) is to be moved in order to move the mounting device from the current pose into the predefined pose. a proximal end for attaching the mounting device to a base and a distal end for receiving an attached device; at least one first and one second arm segment (12, 14), the first arm segment being connected to a first joint and the second arm segment being connected to a second joint, each joint (13, 15) being releasable and lockable; an operator control device for releasing and/or locking the corresponding joint (13, 15) for placing the mounting device in a desired predefined pose; and a first indicator unit (34, 100, 200, 250) disposed on the first joint, and a second indicator unit (36, 100, 200, 252) disposed on the second joint, the first and/or second indicator unit (34, 36, 100, 200, 250, 252) being configured to display at least one status of the mounting device and/or of an attached device, the first indicator unit (34, 100, 200, 250) and the second indicator unit (36, 100, 200, 252) being configured to emit IR radiation, characterized in that at least one display unit (34, 36 100) is implemented substantially annularly about a pivot axis of the corresponding joint (13, 15), and wherein the indicator units (34, 36, 100) are configured to indicate a direction in which at least one joint (13, 15) is to be moved in order to move the mounting device from the current pose into the predefined pose.