mhurhangee/ep-ind-claims huggingface dataset:
A method for automatic segmentation of lesion features in a target data set, comprising: obtaining a source set of image data and the target set of image data from a subject containing a lesion, in which a registration modeled by a registration matrix of the source set of data to the target set of data cannot align the source lesion to the target lesion, the target set of data being obtained at a different and separated point in time from the source set of data, the different and separated point in time being separated by at least one day, wherein the registration cannot align the lesion in the target set of data because the lesion has changed shape such that the registration cannot be applied to the lesion with the changed shape with a combination of only rotations, translations, scaling and shearing; obtaining a segmentation of a lesion feature in the source set of image data; registering the source set of data to the target set of data, wherein performing the registration process comprises performing a refined registration process between the source and target sets of data according to the provided segmentation for at least one lesion; and automatically segmenting the lesion feature in the target set of data, according to the registration and the segmentation in the source set of data. obtaining a source set of image data and the target set of image data from a subject containing a lesion, in which a registration modeled by a registration matrix of the source set of data to the target set of data cannot align the source lesion to the target lesion, the target set of data being obtained at a different and separated point in time from the source set of data, the different and separated point in time being separated by at least one day, wherein the registration cannot align the lesion in the target set of data because the lesion has changed shape such that the registration cannot be applied to the lesion with the changed shape with a combination of only rotations, translations, scaling and shearing; obtaining a segmentation of a lesion feature in the source set of image data; registering the source set of data to the target set of data, wherein performing the registration process comprises performing a refined registration process between the source and target sets of data according to the provided segmentation for at least one lesion; and automatically segmenting the lesion feature in the target set of data, according to the registration and the segmentation in the source set of data.
A runway-embedded flash lighting device, comprising: a cylindrical body; a ceiling member; a light guide member; and an LED flash light source, wherein the cylindrical body is configured to be embedded in a runway, the ceiling member is arranged to be placed in an upper opening of the cylindrical body and configured to be exposed to a runway surface when the cylindrical body is embedded in the runway, the ceiling member is provided with a flash emission window, the light guide member is disposed in the flash emission window, the LED flash light source comprises: a substrate; an LED; a lens member comprising two or more lens pieces; the LED is placed on the substrate; the lens member is placed above the LED; the lens member is a lens member that allows an emission surface of flash emitted from the LED to have a uniform illuminance distribution; the LED flash light source is placed inside the cylindrical body and configured to emit a flash toward the light guide member, the light guide member being placed in the flash emission window, and the light guide member allows the flash emitted from the LED flash light source to be emitted to an outside from the flash emission window, wherein the effective luminous intensity of the runway-embedded flash lighting device is 6000 cd or more, and the LED flash light source is configured to be switchable between a high luminous intensity, a medium luminous intensity, and a low luminous intensity. a cylindrical body; a ceiling member; a light guide member; and an LED flash light source, wherein the cylindrical body is configured to be embedded in a runway, the ceiling member is arranged to be placed in an upper opening of the cylindrical body and configured to be exposed to a runway surface when the cylindrical body is embedded in the runway, the ceiling member is provided with a flash emission window, the light guide member is disposed in the flash emission window, the LED flash light source comprises: a substrate; an LED; a lens member comprising two or more lens pieces; a substrate; an LED; a lens member comprising two or more lens pieces; the LED is placed on the substrate; the lens member is placed above the LED; the lens member is a lens member that allows an emission surface of flash emitted from the LED to have a uniform illuminance distribution; the LED flash light source is placed inside the cylindrical body and configured to emit a flash toward the light guide member, the light guide member being placed in the flash emission window, and the light guide member allows the flash emitted from the LED flash light source to be emitted to an outside from the flash emission window, wherein the effective luminous intensity of the runway-embedded flash lighting device is 6000 cd or more, and the LED flash light source is configured to be switchable between a high luminous intensity, a medium luminous intensity, and a low luminous intensity.
A method for increasing the adhesion between a chromium surface and a lacquer comprising, in this order, the steps of (i) providing a substrate comprising a chromium surface, (ii) contacting said substrate with an aqueous solution comprising at least one phosphorous compounds according to formulae 1 and/or 2 R 1 -P (OR 2 R 3) 1 R 1 -O-P (OR 2 R 3) 2 wherein R 1 is a C 1 to C 12 alkyl group, linear, branched or cyclic and comprising at least one residue selected from the group consisting of phosphonate, phosphate, carboxylate, carboxyl, hydroxyl, amino, amide, thiol, nitrile, isonitrile, cyanate, isocyanate, epoxy, halogenide, alkenyl, ureido and thioureido, and R 2 and R 3 are independently selected from the group consisting of hydrogen, lithium, sodium, potassium, ammonium and C 1 to C 4 alkyl, wherein the C 1 to C 12 alkyl group in R 1 can be interrupted by -O- and/or -N(R 4)- with R 4 selected from hydrogen and C 1 to C 4 alkyl, and at least one additive which increases the solubility of the at least one phosphorous compound according to formulae 1 and 2, while passing an electrical current through said substrate, at least one anode and the aqueous solution wherein said substrate serves as the cathode and thereafter (iii) depositing a lacquer onto said substrate and thereby increasing the adhesion between said substrate and said lacquer. (i) providing a substrate comprising a chromium surface, (ii) contacting said substrate with an aqueous solution comprising at least one phosphorous compounds according to formulae 1 and/or 2 R 1 -P (OR 2 R 3) 1 R 1 -O-P (OR 2 R 3) 2 wherein R 1 is a C 1 to C 12 alkyl group, linear, branched or cyclic and comprising at least one residue selected from the group consisting of phosphonate, phosphate, carboxylate, carboxyl, hydroxyl, amino, amide, thiol, nitrile, isonitrile, cyanate, isocyanate, epoxy, halogenide, alkenyl, ureido and thioureido, and R 2 and R 3 are independently selected from the group consisting of hydrogen, lithium, sodium, potassium, ammonium and C 1 to C 4 alkyl, wherein the C 1 to C 12 alkyl group in R 1 can be interrupted by -O- and/or -N(R 4)- with R 4 selected from hydrogen and C 1 to C 4 alkyl, and at least one additive which increases the solubility of the at least one phosphorous compound according to formulae 1 and 2, while passing an electrical current through said substrate, at least one anode and the aqueous solution wherein said substrate serves as the cathode and thereafter (iii) depositing a lacquer onto said substrate and thereby increasing the adhesion between said substrate and said lacquer.
A flexbeam having a connecting region for connection to a rotor head, wherein the connecting region comprises a first connection point and a second connection point, which lie adjacent to one another along a line lying perpendicular to the radial extension of the rotor head at the end of the flexbeam facing the rotor head, characterised in that the first connection point comprises at least two fastening attachments located one above the other and spaced vertically apart from one another, which have circular recesses, wherein the fastening attachments are aligned in such a manner that the recesses lie coaxially with respect to one another and the second connection point is provided with at least one more fastening attachment than the first connection point, wherein the fastening attachments of the second connection point, which are spaced apart in the vertical direction and lie one above the other, are likewise aligned in such a manner than their coaxial recesses lie coaxially with respect to one another.
A method for modifying at least one parameter (309, 409) used by a video processing algorithm, such as a motion detection algorithm, an object detection algorithm, or an object tracking algorithm, for monitoring of a scene, comprising: receiving a first and a second video sequence of the scene, the first and the second video sequences comprising images (305a, 307a) which are temporally aligned and have corresponding regions, wherein the first video sequence is captured using a thermal camera such that the first video sequence comprises thermal information being indicative of temperatures in the scene, identifying regions (102a, 102b, 102c, 102d) in an image of the first video sequence on basis of the thermal information, modifying at least one parameter (309, 409) of the video processing algorithm in regions of an image of the second video sequence corresponding to the regions (102a, 102b, 102c, 102d) identified in the image of the first video sequence, wherein the at least one parameter (309, 409) of the video processing algorithm is modified such that it takes different values (309a, 309b) in different regions of the image of the second video sequence, wherein the different values (309a, 309b) in the different regions of the image of the second video sequence are set as a function of thermal information in the corresponding regions (102a, 102b, 102c, 102d) identified in the image of the first video sequence, and subjecting the second video sequence to the video processing algorithm using the modified at least one parameter. receiving a first and a second video sequence of the scene, the first and the second video sequences comprising images (305a, 307a) which are temporally aligned and have corresponding regions, wherein the first video sequence is captured using a thermal camera such that the first video sequence comprises thermal information being indicative of temperatures in the scene, identifying regions (102a, 102b, 102c, 102d) in an image of the first video sequence on basis of the thermal information, modifying at least one parameter (309, 409) of the video processing algorithm in regions of an image of the second video sequence corresponding to the regions (102a, 102b, 102c, 102d) identified in the image of the first video sequence, wherein the at least one parameter (309, 409) of the video processing algorithm is modified such that it takes different values (309a, 309b) in different regions of the image of the second video sequence, wherein the different values (309a, 309b) in the different regions of the image of the second video sequence are set as a function of thermal information in the corresponding regions (102a, 102b, 102c, 102d) identified in the image of the first video sequence, and subjecting the second video sequence to the video processing algorithm using the modified at least one parameter.
A transmissive or reflective diffuser plate having a microlens array constituted by a plurality of microlenses, the microlens array being formed on at least either of a light incident surface or a light exit surface, wherein: the microlenses have the same effective diameter and substantially the same curvature and have a structure that creates an optical path length difference for transmitted light or reflected light; each of the microlenses is arranged at intervals based on the effective diameter so as to constitute a two-dimensional basic periodic structure; the microlenses constitute a basic block constructed by an array of NxN lenses (where N is an integer greater than or equal to 3) having the structure that creates the optical path length difference; the basic blocks constitute, by repetitive arrangement thereof, a two-dimensional second periodic structure having a period that is N times as long as a period of the microlenses in the basic periodic structure; the basic block is either an NxN array C in which elements in p rows and q columns (where p and q are integers that satisfy 1 ≤ (p and q) ≤ N) are defined according to the following expression: C p, q = p − 1 q − 1 mod N or an NxN array D obtained by an arbitrary row permutation or column permutation performed on the array C; and the optical path length difference created by the lens positioned in the p-th row and the q-th column with respect to the lens in the first row and the first column in accordance with the array C or D is set to C(p, q)/N times or D(p, q)/N times as long as a wavelength of incident light. the microlenses have the same effective diameter and substantially the same curvature and have a structure that creates an optical path length difference for transmitted light or reflected light; each of the microlenses is arranged at intervals based on the effective diameter so as to constitute a two-dimensional basic periodic structure; the microlenses constitute a basic block constructed by an array of NxN lenses (where N is an integer greater than or equal to 3) having the structure that creates the optical path length difference; the basic blocks constitute, by repetitive arrangement thereof, a two-dimensional second periodic structure having a period that is N times as long as a period of the microlenses in the basic periodic structure; the basic block is either an NxN array C in which elements in p rows and q columns (where p and q are integers that satisfy 1 ≤ (p and q) ≤ N) are defined according to the following expression: C p, q = p − 1 q − 1 mod N or an NxN array D obtained by an arbitrary row permutation or column permutation performed on the array C; and the optical path length difference created by the lens positioned in the p-th row and the q-th column with respect to the lens in the first row and the first column in accordance with the array C or D is set to C(p, q)/N times or D(p, q)/N times as long as a wavelength of incident light.
A container cover, which is suitable for closing a receptacle to form a container, wherein said container comprises a receptacle which is associable with said cover and comprising side walls which delimit at least one receptacle cavity, said side walls comprising at least one lip which projects opposite with respect to said receptacle cavity; said cover being suitable for covering said receptacle cavity by resting on said at least one lip to close and seal said receptacle cavity; and wherein said cover comprises at least one safety seal device which is suitable for indicating the occurrence of the first opening of the container and is suitable for showing the occurrence of the tampering with the container; and wherein said safety seal device comprises at least one frangible element and at least one hinge element which are structurally connected so as to define a slice of said cover; and wherein said at least one safety seal device comprises a hooking tooth which is suitable for projecting cantilevered from said cover towards said lip of said receptacle when said cover is mounted on said receptacle; and wherein said at least one hooking tooth is suitable for coupling as an undercut against a lip face of said lip facing opposite to said cover so as to snap fit said cover to said receptacle to close said receptacle cavity; and wherein said at least one hooking tooth is substantially unsuitable for flexural work; and wherein said at least one hooking tooth comprises at least one abutment surface which is suitable for facing said lip face, and at least one snap introduction slide inclined so as to slide on a portion of said at least one lip and suitable for causing the elastic deformation of said slice, to allow the first closure of the container, thus avoiding causing the breakage of said at least one frangible element; and wherein said frangible element has such a shape as to be more brittle than said hooking tooth so that said safety seal device indicates the occurrence of the first opening of the container by means of the breakage of said at least one frangible element; characterized in that said slice comprises at least one window which is suitable for making said slice elastically deformable so as to allow the snap fitting of said cover to said receptacle.
Personal electronic delivery system, comprising: - a housing having a first end with an inlet and a second end with an outlet; - a fluid path (20, 28) substantially extending between the inlet and the outlet; - a buffer for holding a delivery fluid, and connecting means configured to transfer delivery fluid to the fluid path; and - a heater that is provided in, at or close to the fluid path configured for heating the delivery fluid such that at least a part of the delivery fluid atomises and/or vaporises in the fluid path, and an energy source configured for providing energy to the heater, wherein the heater comprises a metal conductor that is provided with a porous ceramic layer that is configured to control the atomizing and/or vaporization, wherein the ceramic layer is provided on or at the conductor with plasma electrolytic oxidation, and wherein the buffer substantially surrounds the heater, wherein the buffer is provided with openings configured for transferring delivery fluid to the heater. - a housing having a first end with an inlet and a second end with an outlet; - a fluid path (20, 28) substantially extending between the inlet and the outlet; - a buffer for holding a delivery fluid, and connecting means configured to transfer delivery fluid to the fluid path; and - a heater that is provided in, at or close to the fluid path configured for heating the delivery fluid such that at least a part of the delivery fluid atomises and/or vaporises in the fluid path, and an energy source configured for providing energy to the heater,
Composition of performance additives for bitumen or bituminous compositions consisting solely of an acidic adjuvant chosen from phosphoric acids, polyphosphoric acids and their mixtures and of a H 2 S scavenger chosen from copper hydroxyl carbonates and their mixtures with copper oxides, hydroxides, hydrates, carbonates, carboxylates, nitrates and phosphates, said acidic adjuvant and said H 2 S scavenger being alone or as a mixture in one of more solvents inert with respect to the acidic adjuvant and the H 2 S scavenger, it being understood that said H 2 S scavenger and said acidic adjuvant can respectively comprise up to 2% by weight of impurities.
A drainage trap assembly for maintaining a water seal, the drainage trap assembly comprising: a trap having first and second end portions (70, 72) and a trap portion between the first and second end portions, the trap being operable to retain a pool of water in the trap portion; a plumbing fixture connector coupled to the first end portion of the trap, the plumbing fixture connector being operable to be connected to a discharge of a plumbing fixture; and a discharge joint coupled to the second end portion of the trap, the discharge joint being operable to be connected to a drainage pipe output; wherein the discharge joint comprises a flexible hose having a substantially smooth inner surface and an elbow connecting a first end of the flexible hose to the second end portion of the trap, wherein the elbow comprises at least one sealing member extending radially and outwardly from an outer surface of the elbow, and wherein the first end of the flexible hose is mounted on the elbow, such that the at least one sealing member is in contact with the substantially smooth inner surface of the flexible hose to provide a substantially water-proof seal with a friction fit.. a trap having first and second end portions (70, 72) and a trap portion between the first and second end portions, the trap being operable to retain a pool of water in the trap portion; a plumbing fixture connector coupled to the first end portion of the trap, the plumbing fixture connector being operable to be connected to a discharge of a plumbing fixture; and a discharge joint coupled to the second end portion of the trap, the discharge joint being operable to be connected to a drainage pipe output; wherein the discharge joint comprises a flexible hose having a substantially smooth inner surface and an elbow connecting a first end of the flexible hose to the second end portion of the trap, wherein the elbow comprises at least one sealing member extending radially and outwardly from an outer surface of the elbow, and wherein the first end of the flexible hose is mounted on the elbow, such that the at least one sealing member is in contact with the substantially smooth inner surface of the flexible hose to provide a substantially water-proof seal with a friction fit..
A method for light adaptation of the eyes of a driver of a vehicle when exiting a tunnel, wherein the method comprises: - determining a tunnel exit position, and - changing a light source luminous flux of at least one light source in the vehicle as the vehicle approaches the tunnel exit position in response to the determination of the tunnel exit position wherein the at least one light source is arranged to emit light of various colour and/or colour temperatures, the method being characterized in that it further comprises: - determining an input colour and/or colour temperature at the tunnel exit position by a colour temperature sensor unit, - adapting at least one output colour and/or colour temperature of the at least one light source in the vehicle in response to the determination of the input colour and/or colour temperature. - determining a tunnel exit position, and - changing a light source luminous flux of at least one light source in the vehicle as the vehicle approaches the tunnel exit position in response to the determination of the tunnel exit position wherein the at least one light source is arranged to emit light of various colour and/or colour temperatures, the method being characterized in that it further comprises: - determining an input colour and/or colour temperature at the tunnel exit position by a colour temperature sensor unit, - adapting at least one output colour and/or colour temperature of the at least one light source in the vehicle in response to the determination of the input colour and/or colour temperature. - determining an input colour and/or colour temperature at the tunnel exit position by a colour temperature sensor unit, - adapting at least one output colour and/or colour temperature of the at least one light source in the vehicle in response to the determination of the input colour and/or colour temperature.