mhurhangee/patent-ind-claim-en huggingface dataset:
Optical cable in the form of a flattened strip, in which a variable number of optical fibers for telecommunication are placed side by side, said optical fibers are included between two containment tapes and are immersed in a substance with lubricating properties ,and such strip-shaped optical cable is characterized in that at least one of the outer surfaces of said strip-shaped optical cable is adhesive, and said optical cable is suited to be bent longitudinally, along directions parallel to said optical fibers in correspondence of a zone where said containment tapes are very close, so as to touch, or almost touch, and, when said optical cable is folded, it is kept permanently folded for the effect of the adhesive surface which remains inside the fold, and this folded configuration of said optical cable is suitable for being inserted into a conduit.
A food or beverage comprising 3,7-dimethyl-2-methylene-6-octen-1-ol.
A lift point alignment device for a vehicle maintenance lift aligning a vehicle body holding tool provided in a lifting arm of a vehicle maintenance lift to lift points provided in a lower part of a vehicle, characterised in the lift point alignment device comprising: a mirror body detachably attached to the vehicle body holding tool, the mirror body including a mirror surface facing upward while the mirror body is attached to the vehicle body holding tool; and a light source provided in the mirror body to project light in a vertical direction toward the lower part of the vehicle from the mirror surface of the mirror body attached to the vehicle body holding tool, wherein an alignment state of the vehicle body holding tool with respect to the lift points of the vehicle is allowed to be recognized based on a match state between an image (B) of the light source and an image (A) of the lift points of the vehicle reflected in the mirror surface of the mirror body observed from a side of the vehicle. a mirror body detachably attached to the vehicle body holding tool, the mirror body including a mirror surface facing upward while the mirror body is attached to the vehicle body holding tool; and a light source provided in the mirror body to project light in a vertical direction toward the lower part of the vehicle from the mirror surface of the mirror body attached to the vehicle body holding tool, wherein an alignment state of the vehicle body holding tool with respect to the lift points of the vehicle is allowed to be recognized based on a match state between an image (B) of the light source and an image (A) of the lift points of the vehicle reflected in the mirror surface of the mirror body observed from a side of the vehicle.
A method for producing multimers with covalent bond bridges, the method comprising steps of: 1) preparing repeat chains of affinity domains having specific binding affinity to a protein monomer; 2) preparing repeat chain/multiple protein monomer complexes by mixing the repeat chains and the protein monomers of step 1) and forming covalent bond bridges between the protein monomers; and 3) separating multimers in which covalent bond bridges are formed between the protein monomers in the repeat chain/multiple protein monomer complexes of step 2), wherein the protein monomer contains chemical functional group to form covalent bond bridge. 1) preparing repeat chains of affinity domains having specific binding affinity to a protein monomer; 2) preparing repeat chain/multiple protein monomer complexes by mixing the repeat chains and the protein monomers of step 1) and forming covalent bond bridges between the protein monomers; and 3) separating multimers in which covalent bond bridges are formed between the protein monomers in the repeat chain/multiple protein monomer complexes of step 2), wherein the protein monomer contains chemical functional group to form covalent bond bridge.
A porous plate-shaped filler which has a plate shape having an aspect ratio of 3 or more, has a minimum length of 0.1 to 50 μm and a porosity of 20 to 90%, and includes plate-shaped pores having an aspect ratio of 1.5 or more, wherein in a cross section in a direction of the minimum length of the porous plate-shaped filler, an average of angles between directions of minimum lengths of the pores and the direction of the minimum length of the porous plate-shaped filler is 45° or less, and wherein the minimum length is defined as a length minimized when sandwiching the plate-shaped filler between a pair of parallel surfaces.
Piezoelectric device for generating electrical voltage comprising at least one first blade having a curved portion delimiting a first branch and a second branch of the blade, the first branch being intended to be secured to a fixed support, the second branch being substantially planar and having a free end that can oscillate about its rest position under the effect of a mechanical force, at least one piezoelectric element resting on one of the main faces of the second branch of the first blade, and comprising a second blade of a structure identical to the first blade , all or part of the surface of one of the main faces of the first branch of the first blade being secured to all or part of the surface of one of the main faces of the first branch of the second blade , and the first branches being fixed with respect to one another, characterized in that the first branches are in direct contact and in that each of the first branches has at least one opening that can at least cooperate with means for fixing the first branches to the fixed support.
A liquid iris for adjusting an amount of light penetration based on an applied electrical signal, the liquid iris comprising: an insulating layer made of a transparent material; a cover glass configured to be spaced apart from the insulating layer; a first fluid configured to be provided between the insulating layer and the cover glass and form a path through which light passes; a second fluid configured to be provided between the insulating layer and the cover glass , wherein the second fluid is an opaque fluid and immiscible with the first fluid ; a transparent electrode pattern configured to be provided under the insulating layer and form a potential difference from the first fluid ; and a controller configured to change a surface curvature of the first fluid by controlling the potential difference and control an area in which the first fluid is in contact with the cover glass , wherein the transparent electrode pattern includes a first channel and a second channel having a same central axis wherein each channel of the the transparent electrode pattern comprises a first conducting wire configured to have a ring shape at a bottom of the insulating layer , wherein one side thereof is opened to form a first end and a second end, a second conducting wire configured to be vertically connected to the first end of the first conducting wire , and a third conducting wire configured to be vertically connected to the second end of the first conducting wire , and wherein the controller is configured to apply a current to the first end of the first channel through the second conducting wire and the second end of the second channel through the third conducting wire. an insulating layer made of a transparent material; a cover glass configured to be spaced apart from the insulating layer; a first fluid configured to be provided between the insulating layer and the cover glass and form a path through which light passes; a second fluid configured to be provided between the insulating layer and the cover glass , wherein the second fluid is an opaque fluid and immiscible with the first fluid ; a transparent electrode pattern configured to be provided under the insulating layer and form a potential difference from the first fluid ; and a controller configured to change a surface curvature of the first fluid by controlling the potential difference and control an area in which the first fluid is in contact with the cover glass , wherein the transparent electrode pattern includes a first channel and a second channel having a same central axis wherein each channel of the the transparent electrode pattern comprises a first conducting wire configured to have a ring shape at a bottom of the insulating layer , wherein one side thereof is opened to form a first end and a second end, a second conducting wire configured to be vertically connected to the first end of the first conducting wire , and a third conducting wire configured to be vertically connected to the second end of the first conducting wire , and
An apparatus, comprising: an image sensor comprising a pixel array having a unit cell that includes visible light photodiodes and an infra-red photodiode , the visible light photodiodes and the infra-red photodiode coupled to a particular column of the pixel array, the unit cell having a first capacitor coupled to the visible light photodiodes to store charge from each of the visible-light photodiodes, the unit cell having a readout circuit to provide the first capacitor's voltage on the particular column, characterized in that the unit cell having a second capacitor that is coupled to the infra-red photodiode through a first transfer gate transistor to receive charge from the infra-red photodiode during a time-of-flight exposure, the first capacitor being coupled to the infra-red photodiode through a second transfer gate transistor to receive charge from the infra-red photodiode during the time-of-flight exposure.
A method of fabricating a display panel, the display panel comprising a pixel region and a fan-out region , the method comprising steps of sequentially forming first signal lines, a first insulation layer , second signal lines and a second insulation layer on a substrate, the first signal lines and the second signal lines being provided in the pixel region to intersect each other, and extending from the pixel region into the fan-out region , respectively, wherein the step of forming the second insulation layer comprises sequentially forming, on the substrate having the second signal lines formed thereon, at least four layers of structures whose densities decrease gradually, to form the layers of structures of the second insulation layer , each layer of structure (14-1, 14-2, 14-3, 14-4)of the second insulation layer is made of the same material, and the second insulation layer comprises four layers of structures, the step of sequentially forming the four layers of structures of the second insulation layer on the substrate having the second signal lines formed thereon comprises: forming the second insulation layer by a chemical vapor deposition process using reaction gases of NH 3 , N 2 and SiH 4 under a temperature ranging from 250°C to 400°C, when forming the first layer of structure (14-1) of the second insulation layer , a flow rate of SiH 4 ranges from 500sccm to 1500sccm, a flow rate of NH 3 ranges from 2000sccm to 4000sccm, a flow rate of N 2 ranges from 10000sccm to 30000sccm, a reaction power ranges from 3000W to 6000W, a reaction pressure ranges from 500mtorr to 1000mtorr, and a reaction distance ranges from 12.7 mm (500 mils) to 38.1 mm (1500 mils); when forming the second layer of structure (14-2) of the second insulation layer , the flow rate of SiH 4 ranges from 1000sccm to 2000sccm, the flow rate of NH 3 ranges from 3000sccm to 5000sccm, the flow rate of N 2 ranges from 10000sccm to 30000sccm, the reaction power ranges from 3000W to 7000W, the reaction pressure ranges from 800mtorr to 1500mtorr, and the reaction distance ranges from 20.32 mm (800 mils) to 38.1 mm (1500 mils); when forming the third layer of structure (14-3) of the second insulation layer , the flow rate of SiH 4 ranges from 1000sccm to 2000sccm, the flow rate of NH 3 ranges from 3000sccm to 7000sccm, the flow rate of N 2 ranges from 10000sccm to 30000sccm, the reaction power ranges from 3000W to 7000W, the reaction pressure ranges from 1000mtorr to 2500mtorr, and the reaction distance ranges from 20.32 mm (800 mils) to 38.1 mm (1500 mils); and when forming the fourth layer of structure (14-4) of the second insulation layer , the flow rate of SiH 4 ranges from 1000sccm to 2000sccm, the flow rate of NH 3 ranges from 4000sccm to 8000sccm, the flow rate of N 2 ranges from 10000sccm to 30000sccm, the reaction power ranges from 5000W to 7000W, the reaction pressure ranges from 2000mtorr to 3000mtorr, and the reaction distance ranges from 20.32 mm (800 mils) to 38.1 mm (1500 mils).
A process of preparing a compound II wherein X is a leaving group, comprising converting a compound III wherein Y is another leaving group and wherein X and Y are not the same, into compound II in the presence of a radical inhibitor.
An image display system for displaying an image of a side of a car of a train at a station platform, comprising: a car-side monitoring system including a plurality of car cameras (101-108, 110) attached to cars of a train and a monitor for displaying images taken by the car cameras; and a platform-side monitoring system including a plurality of platform monitoring cameras (201-204, 210) installed on a station platform, and an image analysis unit which analyzes images taken by the platform monitoring cameras and transmits information on the results of detection to the car-side monitoring system in the case where an object of attention is detected from the analyzed image, wherein the car-side monitoring system further comprises a display control unit for allowing the monitor to display an image taken by the car camera that corresponds to the platform monitoring camera which has taken an image of the object of attention in a mode that is different from that of the images taken by the other car cameras on the basis of the information on the results of detection that has been received from the platform-side monitoring system. a car-side monitoring system including a plurality of car cameras (101-108, 110) attached to cars of a train and a monitor for displaying images taken by the car cameras; and a platform-side monitoring system including a plurality of platform monitoring cameras (201-204, 210) installed on a station platform, and an image analysis unit which analyzes images taken by the platform monitoring cameras and transmits information on the results of detection to the car-side monitoring system in the case where an object of attention is detected from the analyzed image, wherein the car-side monitoring system further comprises a display control unit for allowing the monitor to display an image taken by the car camera that corresponds to the platform monitoring camera which has taken an image of the object of attention in a mode that is different from that of the images taken by the other car cameras on the basis of the information on the results of detection that has been received from the platform-side monitoring system.
A tip electrode comprising: an electrically-insulative substrate comprising a receiving lumen , a plurality of irrigation flow holes , and a tip portion; a plurality of equally spaced longitudinally extending segmented electrodes comprising a layer of conductive material deposited on an outer surface of the tip portion; an insulation sleeve configured to circumferentially surround and electrically insulate a proximal portion of the tip electrode ; and a deflection pull ring comprising at least one clip lock configured to mate with a relief opening of the insulation sleeve ; wherein an inner surface of the electrically-insulative substrate defines the receiving lumen and wherein the irrigation flow holes extend radially through the electrically-insulative substrate and terminate adjacent an outer surface of the electrically-insulative substrate , wherein the receiving lumen is fluidly coupled to the plurality of irrigation flow holes and the receiving lumen is configured to be fluidly coupled to a catheter body, and wherein the plurality of irrigation flow holes are formed between the plurality of equally spaced longitudinally extending segmented electrodes . an electrically-insulative substrate comprising a receiving lumen , a plurality of irrigation flow holes , and a tip portion; a plurality of equally spaced longitudinally extending segmented electrodes comprising a layer of conductive material deposited on an outer surface of the tip portion; an insulation sleeve configured to circumferentially surround and electrically insulate a proximal portion of the tip electrode ; and a deflection pull ring comprising at least one clip lock configured to mate with a relief opening of the insulation sleeve ; wherein an inner surface of the electrically-insulative substrate defines the receiving lumen and wherein the irrigation flow holes extend radially through the electrically-insulative substrate and terminate adjacent an outer surface of the electrically-insulative substrate , wherein the receiving lumen is fluidly coupled to the plurality of irrigation flow holes and the receiving lumen is configured to be fluidly coupled to a catheter body, and wherein the plurality of irrigation flow holes are formed between the plurality of equally spaced longitudinally extending segmented electrodes .
Head board assembly of a log transporting apparatus characterized by at least one lateral head board extension , connected to a head board or a structure holding the head board by means of a pivot joint , the pivot joint having one interface to be connected to the head board or the structure and one interface to be connected to the head board extension of the log transporting apparatus and having a pivot axle connected to both interfaces , whereas a spring allowing a movement in the direction of a pivot axis is provided at or between the interfaces .
A printed electronic component comprising: a substrate of an electrical component; one or more printed layers on the substrate, wherein the one or more printed layers comprise a UV-LED curable dielectric ink or coating composition comprising: one or more acrylated oligomers selected from polyester acrylate oligomers, urethane acrylate oligomers, epoxy acrylate oligomers, mercapto-modified acrylate oligomers, and blends thereof; one or more acrylate monomers selected from mono-, di-, tri-functional acrylate monomers, and polyfunctional acrylate monomers having more than 3 acrylate functional groups and combinations thereof; and one or more photoinitiators; and wherein the ink or coating composition has been cured by exposure to energy from a UV-LED energy source. a substrate of an electrical component; one or more printed layers on the substrate, wherein the one or more printed layers comprise a UV-LED curable dielectric ink or coating composition comprising: one or more acrylated oligomers selected from polyester acrylate oligomers, urethane acrylate oligomers, epoxy acrylate oligomers, mercapto-modified acrylate oligomers, and blends thereof; one or more acrylate monomers selected from mono-, di-, tri-functional acrylate monomers, and polyfunctional acrylate monomers having more than 3 acrylate functional groups and combinations thereof; and one or more photoinitiators; and one or more acrylated oligomers selected from polyester acrylate oligomers, urethane acrylate oligomers, epoxy acrylate oligomers, mercapto-modified acrylate oligomers, and blends thereof; one or more acrylate monomers selected from mono-, di-, tri-functional acrylate monomers, and polyfunctional acrylate monomers having more than 3 acrylate functional groups and combinations thereof; and one or more photoinitiators; and wherein the ink or coating composition has been cured by exposure to energy from a UV-LED energy source.
An inlet guide for installation on a filter cassette, comprising: a plurality of rectangular openings , each opening defined by a set of parallel first sides and a set of parallel second sides orthogonal to the set of first sides , the parallel first sides being longer than the parallel second sides ; wherein each opening comprises a first pair of curved lofted surfaces facing toward the respective opening of the plurality of openings along each respective set of first sides ; and wherein each opening comprises a second pair of curved lofted surfaces facing toward the respective opening of the plurality of openings along each respective set of second sides ; wherein the first and second pairs of curved lofted surfaces each have a short elliptical curve with a height ranging from 25 to 75 mm and a height to width ratio of from 1:1 to 1:2.7 causing a cross sectional area of the opening to decrease from an upstream end of the inlet guide to a downstream end of the inlet guide . a plurality of rectangular openings , each opening defined by a set of parallel first sides and a set of parallel second sides orthogonal to the set of first sides , the parallel first sides being longer than the parallel second sides ; wherein each opening comprises a first pair of curved lofted surfaces facing toward the respective opening of the plurality of openings along each respective set of first sides ; and wherein each opening comprises a second pair of curved lofted surfaces facing toward the respective opening of the plurality of openings along each respective set of second sides ; wherein the first and second pairs of curved lofted surfaces each have a short elliptical curve with a height ranging from 25 to 75 mm and a height to width ratio of from 1:1 to 1:2.7 causing a cross sectional area of the opening to decrease from an upstream end of the inlet guide to a downstream end of the inlet guide .