mhurhangee/ep-ind-claims huggingface dataset:
Pull-out unit (S1, S2, S3) for pulling objects out from at least one space that is difficult to access, said pull-out unit (S1, S2, S3) being suitable for being connected to a wall, in particular to a wall delimiting the space, and comprising: - guide means (G1, G2, G3) configured to be fixed to the wall; - sliding support means slidingly connected to the guide means (G1, G2, G3) and suitable for supporting the objects; the guide means (G1, G2, G3) being configured for guiding a sliding of the sliding support means, - said guide means (G1, G2, G3) develop along an open trajectory, the open trajectory being a broken or curvilinear trajectory; - said guide means (G1, G2, G3) comprise an outlet section destined to be positioned in proximity of or at a free edge of the wall, preferably the outlet section being defined at a terminal end of the guide means (G1, G2, G3); - said sliding support means comprise a chain having an open shape (C1, C2, C3) and comprising a set of sliders that are connected to each other and are slidingly mounted on the guide means (G1, G2, G3); - said chain (C1, C2, C3) is configured for being alternately disposed in an idle position, wherein all sliders do not protrude from the outlet section of the guide means (G1, G2, G3), and in an operating position, wherein at least one slider protrudes from the outlet section characterised in that, the outlet section comprises a terminal end of the guide means (G1, G2, G3) and said guide means (G1, G2, G3) comprise a housing portion configured to define a housing configured for containing the sliders that station or slide inside said housing, and to prevent the sliders from moving along different directions with respect to the direction imposed by the housing portion; said housing portion ends with said terminal end of the guide means (G1, G2, G3). - guide means (G1, G2, G3) configured to be fixed to the wall; - sliding support means slidingly connected to the guide means (G1, G2, G3) and suitable for supporting the objects; the guide means (G1, G2, G3) being configured for guiding a sliding of the sliding support means, - said guide means (G1, G2, G3) develop along an open trajectory, the open trajectory being a broken or curvilinear trajectory; - said guide means (G1, G2, G3) comprise an outlet section destined to be positioned in proximity of or at a free edge of the wall, preferably the outlet section being defined at a terminal end of the guide means (G1, G2, G3); - said sliding support means comprise a chain having an open shape (C1, C2, C3) and comprising a set of sliders that are connected to each other and are slidingly mounted on the guide means (G1, G2, G3); - said chain (C1, C2, C3) is configured for being alternately disposed in an idle position, wherein all sliders do not protrude from the outlet section of the guide means (G1, G2, G3), and in an operating position, wherein at least one slider protrudes from the outlet section
A packaging system for at least one article or item, comprising: a multilayer laminate structure that includes first and second conductive layers and an encapsulated transformative material, wherein the transformative material is configured to undergo a state change that changes impedance between the first and second conductive layers (101, 103) in response to an intrusion or perforation through at least part of the multilayer laminate structure, and wherein the first and second conductive layers (101, 103) are further configured to provide an RF antenna and opposed electrodes of at least one integrated galvanic cell; and at least one NFC/RFID integrated circuit (301; 301'; 301") that is mechanically secured to the multilayer laminate structure and electrically coupled to the RF antenna, the at least one integrated galvanic cell, and other parts of the first and second conductive layers (101, 103) of the multilayer laminate structure; wherein the at least one galvanic cell is configured to supply electrical power to the at least one NFC/RFID integrated circuit (301; 301'; 301"); characterized in that the at least one integrated galvanic cell further comprises an encapsulated electrolyte material and ion bridge that are part of the multilayer laminate structure and, wherein the transformative material, the encapsulated electrolyte material and the ion bridge are disposed between the first and second conductive layers (101, 103) of the multilayer laminate structure. a multilayer laminate structure that includes first and second conductive layers and an encapsulated transformative material, wherein the transformative material is configured to undergo a state change that changes impedance between the first and second conductive layers (101, 103) in response to an intrusion or perforation through at least part of the multilayer laminate structure, and wherein the first and second conductive layers (101, 103) are further configured to provide an RF antenna and opposed electrodes of at least one integrated galvanic cell; and at least one NFC/RFID integrated circuit (301; 301'; 301") that is mechanically secured to the multilayer laminate structure and electrically coupled to the RF antenna, the at least one integrated galvanic cell, and other parts of the first and second conductive layers (101, 103) of the multilayer laminate structure; wherein the at least one galvanic cell is configured to supply electrical power to the at least one NFC/RFID integrated circuit (301; 301'; 301"); characterized in that the at least one integrated galvanic cell further comprises an encapsulated electrolyte material and ion bridge that are part of the multilayer laminate structure and, wherein the transformative material, the encapsulated electrolyte material and the ion bridge are disposed between the first and second conductive layers (101, 103) of the multilayer laminate structure.
Method of introducing a CO 2 composition into a subterranean geological formation for storage of CO 2 therein, said method comprising the step of: injecting said CO 2 composition into said formation using a first set of injection parameters at which said CO 2 composition is a supercritical fluid having first viscosity and density values, characterised in that the method further comprises the steps of modifying said injection parameters such that said CO 2 composition is injected into said formation using at least one second set of injection parameters at which said CO 2 composition is a supercritical fluid having second viscosity and density values that are different from said first viscosity and density values, and further alternating cyclically between said first and second set of injection parameters, wherein said injection parameters include the injection temperature, injection pressure and hydrocarbon content of said CO 2 composition. injecting said CO 2 composition into said formation using a first set of injection parameters at which said CO 2 composition is a supercritical fluid having first viscosity and density values, characterised in that the method further comprises the steps of modifying said injection parameters such that said CO 2 composition is injected into said formation using at least one second set of injection parameters at which said CO 2 composition is a supercritical fluid having second viscosity and density values that are different from said first viscosity and density values, and further alternating cyclically between said first and second set of injection parameters, wherein said injection parameters include the injection temperature, injection pressure and hydrocarbon content of said CO 2 composition.
A composition comprising an active blend comprising, or consisting of, trans-cinnamaldehyde, trans-2-methoxycinnamaldehyde, cinnamyl acetate, linalol, cineole, beta-caryophyllene, and benzyl benzoate, and wherein the total amount of coumarin and/or safrole is below 1 % by weight compared to the total weight of the composition.
An animal chew comprising an elongated central portion of a first material a pair of end caps and a shaft of a second material, wherein said elongated central portion comprises a hollow elastomeric bladder which overlies but is spaced from said shaft to define a gap between the shaft and the bladder, the elongated central portion having two ends; said shaft connects said end caps,; wherein said bladder includes a longitudinal axis and an inner surface and said shaft includes a longitudinal axis and an outer surface and the inner surface of said bladder along said longitudinal axis is concave relative to said outer surface of said shaft; wherein a recess is formed in an outer surface of the end caps, outboard of the shaft which are complementary in shape to the end of said central portion, the recess extending about the shaft circumferentially so that when assembled together, the ends of the central portion each lie within the recess and not be readily accessible to the animal.
A microelectromechanical systems die comprising: a thermally conductive substrate including an outer surface, wherein the outer surface extends around a perimeter of the thermally conductive substrate; a plurality of low mass sensing structures disposed within the thermally conductive substrate to form a plurality of inter-structure spaces between each of the plurality of low mass sensing structures that allow a target gas to flow therethrough, each of the plurality of low mass sensing structures include a sensing structure proximal top surface at one end of the sensing structure, a sensing structure distal top surface at the other end of the sensing structure, and a sensing structure width dimension; a sensor material disposed on each of the plurality of low mass sensing structures, the sensor material configured to sense the target gas via chemo-resistive gas testing; a first electrode and a second electrode, each disposed on the sensor material; further comprising a heating apparatus disposed on each of the plurality of low mass sensing structures; and characterised in that the microelectromechanical systems die comprises: a sacrificial coating disposed on at least one of the plurality of low mass sensing structures, wherein the sacrificial coating is disposed over the sensor material, and wherein the sacrificial coating is configured to be removed by the heating apparatus. a thermally conductive substrate including an outer surface, wherein the outer surface extends around a perimeter of the thermally conductive substrate; a plurality of low mass sensing structures disposed within the thermally conductive substrate to form a plurality of inter-structure spaces between each of the plurality of low mass sensing structures that allow a target gas to flow therethrough, each of the plurality of low mass sensing structures include a sensing structure proximal top surface at one end of the sensing structure, a sensing structure distal top surface at the other end of the sensing structure, and a sensing structure width dimension; a sensor material disposed on each of the plurality of low mass sensing structures, the sensor material configured to sense the target gas via chemo-resistive gas testing; a first electrode and a second electrode, each disposed on the sensor material; further comprising a heating apparatus disposed on each of the plurality of low mass sensing structures; and characterised in that the microelectromechanical systems die comprises: a sacrificial coating disposed on at least one of the plurality of low mass sensing structures, wherein the sacrificial coating is disposed over the sensor material, and wherein the sacrificial coating is configured to be removed by the heating apparatus.
A method, comprising the following steps performed by a hosted computing environment: obtaining (602, 702), from a computing device of a user, a request to store a data set on a storage system; dividing the data set into a set of fixed-length plaintext objects; generating (612, 614, 704-708) a set of block-level ciphertext objects representing the set of fixed-length plaintext objects in encrypted form, wherein generating the set of block-level ciphertext objects comprises, for each fixed-length plaintext object of the set of fixed-length plaintext objects, convergently encrypting the fixed-length plaintext object with an encryption key derived based at least in part on the fixed-length plaintext object to result in a block-level ciphertext object representing the fixed-length plaintext object; storing (616, 710), within the storage system, those block-level ciphertext objects of the set of block-level ciphertext objects that are not duplicative of a block-level ciphertext object that is already stored within the storage system; generating a manifest for the data set, the manifest identifying the set of block-level ciphertext objects that collectively represent the data set and, for each block-level ciphertext object of the set of block-level ciphertext objects, the encryption key with which the block-level ciphertext object is encrypted; and storing the manifest within the storage system. obtaining (602, 702), from a computing device of a user, a request to store a data set on a storage system; dividing the data set into a set of fixed-length plaintext objects; generating (612, 614, 704-708) a set of block-level ciphertext objects representing the set of fixed-length plaintext objects in encrypted form, wherein generating the set of block-level ciphertext objects comprises, for each fixed-length plaintext object of the set of fixed-length plaintext objects, convergently encrypting the fixed-length plaintext object with an encryption key derived based at least in part on the fixed-length plaintext object to result in a block-level ciphertext object representing the fixed-length plaintext object; storing (616, 710), within the storage system, those block-level ciphertext objects of the set of block-level ciphertext objects that are not duplicative of a block-level ciphertext object that is already stored within the storage system; generating a manifest for the data set, the manifest identifying the set of block-level ciphertext objects that collectively represent the data set and, for each block-level ciphertext object of the set of block-level ciphertext objects, the encryption key with which the block-level ciphertext object is encrypted; and storing the manifest within the storage system.
A shock-absorption device for a piston mechanism in a simulation gun in which an air current is ejected by the piston mechanism portion to fire a bullet, the piston mechanism portion comprises a piston movable inside a cylinder, and the cylinder includes a guide portion in a front-rear direction outside the cylinder, characterized in that the shock-absorption device comprises: a piston stop configured to attach to and to move relative to the piston mechanism portion and to engage with the piston to absorb an impact force accompanying the operation of the piston mechanism portion, and a shock-absorption means configured to be provided between the piston stop and the cylinder, wherein the piston stop is provided to be movable in the front-rear direction within a predetermined range by engagement between the piston stop and the guide portion, and the shock-absorption means is a coil spring provided to be arranged between a spring holder in the cylinder and the piston stop. a piston stop configured to attach to and to move relative to the piston mechanism portion and to engage with the piston to absorb an impact force accompanying the operation of the piston mechanism portion, and a shock-absorption means configured to be provided between the piston stop and the cylinder, wherein the piston stop is provided to be movable in the front-rear direction within a predetermined range by engagement between the piston stop and the guide portion, and the shock-absorption means is a coil spring provided to be arranged between a spring holder in the cylinder and the piston stop.
A topical composition comprising saccharide isomerate, hydrolyzed algin, zinc sulfate, and a dermatologically acceptable vehicle, wherein the composition is capable of moisturizing at least one of skin and/or hair, wherein the saccharide isomerate comprises an exopolysaccharide synthesized by Vibrio alginolyticus, and wherein the hydrolyzed algin comprises an anionic polysaccharide synthesized by Laminaria digitate.
A biaxially extended laminated polyester film comprising: 500 or more layers each of which is made of at least of two kinds of thermoplastic polyester resin and has a thickness of less than 30 nm.
Supporting structure with a plurality of elongate profile elements, which are connected to one another with connecting elements (17, 21, 22), wherein the profile elements have a lower side and an upper side formed on the opposite side, each of which has flat abutment surface areas (4, 5, 16) running parallel to one another, so that the profile elements can be placed with the lower side on a substrate and wherein floor covering elements can be placed on the upper side of the profile elements, wherein the profile elements have side walls connecting the lower side to the upper side, in which at least one fastening groove is formed, and wherein the connecting elements (17, 21, 22) can each be fastened in at least one fastening groove of a profile element to be fastened by fastening elements engaging laterally in the fastening grooves, in order to connect the profile element to be fastened to an adjacent profile element by connecting the connecting element (17, 21, 22) to an adjacent profile element or to an adjacent connecting element fastened to the adjacent profile element, wherein each profile element has, in at least one side wall, at least one surface-structured fastening groove running along a profile longitudinal direction and having a groove base spaced apart from the side wall, and two groove walls located opposite one another and merging from the groove base into the side wall, characterised in that at least one groove wall has a three-dimensionally structured groove wall surface, such that a fastening screw is screwed into the surface-structured fastening groove and a threaded portion of the fastening screw can be positively fastened between the two groove wall surfaces, such that it is not necessary to use the groove base to fasten the fastening screw.
A photonic crystal device, comprising: a photonic crystal where first and second media having different refractive indexes are regularly arranged; and an active region arranged inside the photonic crystal, wherein the active region includes an active layer and carrier confinement layers (13, 14) provided on the top and bottom of the active layer for confining carriers, wherein the first medium having a larger refractive index within the first and second media that form the photonic crystal has a larger bandgap than that of the active layer, and wherein the second medium is formed of periodically arranged air holes, characterized in that the active region contacts the first medium along all sides. a photonic crystal where first and second media having different refractive indexes are regularly arranged; and an active region arranged inside the photonic crystal, wherein the active region includes an active layer and carrier confinement layers (13, 14) provided on the top and bottom of the active layer for confining carriers, wherein the first medium having a larger refractive index within the first and second media that form the photonic crystal has a larger bandgap than that of the active layer, and wherein the second medium is formed of periodically arranged air holes, characterized in that the active region contacts the first medium along all sides.
Crystalline Form I of a co-crystal of the compound of Formula with L-proline, wherein the compound of Formula is ( 2S, 3R, 4R, 5S, 6R)-2-(3-(4-((( 1R, 3s, 5S)-bicyclo[3.1.0]hexan-3-yl)oxy)benzyl)-4-chl orophenyl)-6-(hydroxymethyl)tetrahydro-2 H -pyran-3,4,5-triol, wherein the compound of Formula with L-proline are present in a molar ratio of 1: 2; wherein crystalline Form I exhibits an X-ray powder diffraction pattern having characteristic peaks at the 2 θ positions of 4.0±0.2°, 17.9±0.2°, 18.5±0.2° and 19.7±0.2°, as determined by using Cu-Ka radiation,
A Nickel-based superalloy, characterised in that its composition comprises, in percent by weight of the total composition: Chromium: 10.0-11.25, advantageously 10.0-11.0; Cobalt: 11.2-13.7, advantageously 12.0-13.0; Molybdenum: 3.1-3.8, advantageously 3.3-3.7; Tungsten: 3.1-3.8, advantageously 3.1-3.5; Aluminium: 2.9-3.5, advantageously 3.2-3.5; Titanium: 4.6-5.6, advantageously 4.6-5.0; Niobium: 1.9-2.3, advantageously 1.9-2.0; Hafnium: 0.25-0.35, advantageously 0.25-3.0; Zirconium: 0.040-0.060, advantageously 0.050-0.060; Carbon: 0.010-0.030, advantageously 0.015-0.025; Boron: 0.01-0.030, advantageously 0.01-0.02; Nickel: remainder as well as unavoidable impurities; the composition being free of tantalum. Chromium: 10.0-11.25, advantageously 10.0-11.0; Cobalt: 11.2-13.7, advantageously 12.0-13.0; Molybdenum: 3.1-3.8, advantageously 3.3-3.7; Tungsten: 3.1-3.8, advantageously 3.1-3.5; Aluminium: 2.9-3.5, advantageously 3.2-3.5; Titanium: 4.6-5.6, advantageously 4.6-5.0; Niobium: 1.9-2.3, advantageously 1.9-2.0; Hafnium: 0.25-0.35, advantageously 0.25-3.0; Zirconium: 0.040-0.060, advantageously 0.050-0.060; Carbon: 0.010-0.030, advantageously 0.015-0.025; Boron: 0.01-0.030, advantageously 0.01-0.02; Nickel: remainder as well as unavoidable impurities; the composition being free of tantalum.
A lighting device for vehicles, comprising an housing body designed to be mounted on a vehicle and having a front inlet opening arranged to face in use toward a forward driving direction of the vehicle, a transparent cover to close the front inlet opening, a main lighting module and at least two secondary lighting modules (6,7,8), the main lighting module and the at least two secondary lighting modules being arranged inside the housing body, facing the inlet opening; the main lighting module being carried in a fixed manner within the housing body, while the at least two secondary lighting modules (6,7,8) being carried within the housing body rotatable in relation to the housing body and to the main lighting module, each around a respective its own first axis (A,B,C), the first axes (A,B,C) of the at least two secondary lighting modules being arranged parallel to each other and transverse to an horizontal plane (α) in a mounting position of the lighting device; wherein the at least two secondary lighting modules (6,7,8) are designed and/or arranged within the housing body so as to generate on a test screen placed in front of the lighting device, when they are switched on, respective light projections (16,17,18) which are arranged at least in part offset to one another in a vertical direction; characterized in that all the secondary lighting modules (6, 7, 8) are designed to be switched on/off and rotated around the respective first axis independently of one another.