mhurhangee/ep-ind-claims huggingface dataset:
A process of producing a solar battery module including a solar battery cell sealed by a resin between a transparent panel of the light reception surface side and a back face panel, which is characterized in that the sealing resin is made of a crosslinkable thermoplastic resin, a first sealing resin sheet substantially covering the entire surface of the transparent panel of the light reception surface side is arranged between the transparent panel of the light reception surface side and the solar battery cell, a second sealing resin sheet substantially covering the entire surface of the back face panel is arranged between the back face panel and the solar battery cell, the assembly is introduced into a sealing treatment vessel, wherein the sealing treatment vessel is a single vacuum system and is made of a gas non-permeable soft film bag, and the sealing operation including respective steps of a step 1 of reducing the pressure in the sealing treatment vessel at a temperature at which the thermoplastic resin is not melted; a step 2 in which the temperature is raised to the vicinity of or higher than the melting point of the thermoplastic resin in the reduced-pressure state; a step 3 in which the pressure in the sealing treatment vessel is raised; a step 4 in which the temperature is raised to a temperature range where a crosslinking reaction proceeds, thereby proceeding with the crosslinking reaction; and a step 5 in which cooling is performed is carried out.
A steerable drogue assembly for towing behind an aircraft, the drogue assembly comprising: a reception coupling for receiving a probe of a receiver aircraft; one or more aerodynamic control features, each including a wing member arranged to project radially from the drogue into the airflow passing the drogue; a receiving basket formed from a plurality of support arms (93, 96) arranged annularly around the central towing axis of the drogue assembly; and one or more actuators provided in the drogue assembly and adapted to selectively activate said one or more aerodynamic control features, so that an activated aerodynamic control feature interacts with airflow passing the drogue so as to exert a control force on the drogue, characterised in that the aerodynamic control features are moveable between a stowed position interleaved with the support arms and a deployed position projecting radially from the drogue into the airflow passing the drogue. a reception coupling for receiving a probe of a receiver aircraft; one or more aerodynamic control features, each including a wing member arranged to project radially from the drogue into the airflow passing the drogue; a receiving basket formed from a plurality of support arms (93, 96) arranged annularly around the central towing axis of the drogue assembly; and one or more actuators provided in the drogue assembly and adapted to selectively activate said one or more aerodynamic control features, so that an activated aerodynamic control feature interacts with airflow passing the drogue so as to exert a control force on the drogue, characterised in that the aerodynamic control features are moveable between a stowed position interleaved with the support arms and a deployed position projecting radially from the drogue into the airflow passing the drogue.
A method for producing 5-hydroxy-1H-imidazole-4-carboxamide·3/4 hydrate, comprising: reacting 2-aminomalonamide with a compound represented by the following formula in the presence of a carboxylic acid to obtain 5-hydroxy-1H-imidazole-4-carboxamide: wherein, in formula, each R independently represents a C 1-3 alkyl group; reacting the resulting 5-hydroxy-1H-imidazole-4-carboxamide with an acidic compound to obtain a 5-hydroxy-1H-imidazole-4-carboxamide acid salt or a hydrate thereof; and reacting the resulting 5-hydroxy-1H-imidazole-4-carboxamide acid salt or hydrate thereof with a salt in the presence of an acidic solvent to obtain the 5-hydroxy-1H-imidazole-4-carboxamide·3/4 hydrate. reacting 2-aminomalonamide with a compound represented by the following formula in the presence of a carboxylic acid to obtain 5-hydroxy-1H-imidazole-4-carboxamide: wherein, in formula, each R independently represents a C 1-3 alkyl group; reacting the resulting 5-hydroxy-1H-imidazole-4-carboxamide with an acidic compound to obtain a 5-hydroxy-1H-imidazole-4-carboxamide acid salt or a hydrate thereof; and reacting the resulting 5-hydroxy-1H-imidazole-4-carboxamide acid salt or hydrate thereof with a salt in the presence of an acidic solvent to obtain the 5-hydroxy-1H-imidazole-4-carboxamide·3/4 hydrate. wherein, in formula, each R independently represents a C 1-3 alkyl group; reacting the resulting 5-hydroxy-1H-imidazole-4-carboxamide with an acidic compound to obtain a 5-hydroxy-1H-imidazole-4-carboxamide acid salt or a hydrate thereof; and reacting the resulting 5-hydroxy-1H-imidazole-4-carboxamide acid salt or hydrate thereof with a salt in the presence of an acidic solvent to obtain the 5-hydroxy-1H-imidazole-4-carboxamide·3/4 hydrate.
A method of directing RF energy from an active retrodirective antenna array onto an uncooperative target, said array comprising a plurality of nodes that each transmit RF energy, comprising: directing an optical carrier beam with a first RF pilot signal imposed thereon into a spot on the target, said target scattering the optical carrier beam to illuminate a plurality of the nodes of the retrodirective array to form a virtual beacon; and at each of the plurality of illuminated nodes in the retrodirective array, optically detecting the scattered optical carrier beam to extract a second RF pilot signal including a phase accumulated during propagation from the target to said node; processing the second RF pilot signal and a phase reference signal to produce a phase-conjugated RF pilot signal; and amplifying and retransmitting the phase-conjugated RF pilot signal towards the target. directing an optical carrier beam with a first RF pilot signal imposed thereon into a spot on the target, said target scattering the optical carrier beam to illuminate a plurality of the nodes of the retrodirective array to form a virtual beacon; and at each of the plurality of illuminated nodes in the retrodirective array, optically detecting the scattered optical carrier beam to extract a second RF pilot signal including a phase accumulated during propagation from the target to said node; processing the second RF pilot signal and a phase reference signal to produce a phase-conjugated RF pilot signal; and amplifying and retransmitting the phase-conjugated RF pilot signal towards the target.
Method for selecting an access network by way of which a mobile terminal accesses a communication network, comprising the following steps, implemented by the mobile terminal: obtaining, from a device for selecting access networks, of at least one rule for selecting access networks ranking, according to an order of priority, a plurality of access networks comprising a cellular access network using a first cellular access technology, a cellular access network using a second cellular access technology and at least one wireless non-cellular access network; detection of at least one wireless non-cellular access network and of at least one cellular access network to which networks the mobile terminal can attach itself; and selection of the highest priority access network, from among the access networks detected, according to said at least one selection rule applied as a function of the cellular access technology of the cellular access network detected. obtaining, from a device for selecting access networks, of at least one rule for selecting access networks ranking, according to an order of priority, a plurality of access networks comprising a cellular access network using a first cellular access technology, a cellular access network using a second cellular access technology and at least one wireless non-cellular access network; detection of at least one wireless non-cellular access network and of at least one cellular access network to which networks the mobile terminal can attach itself; and selection of the highest priority access network, from among the access networks detected, according to said at least one selection rule applied as a function of the cellular access technology of the cellular access network detected.
A system for transferring fluid between a fixed or floating facility for producing or storing fluid and a vessel such as a liquid natural gas carrier, of the type comprising at least one arrangement of articulated arms that includes an inner arm articulated at one end by a joint with a horizontal axis to a support structure, so as to pivot in a vertical plane, and an outer arm articulated at one end to the outer end of the inner arm, by a rotary joint whereof the arm is oriented horizontally when the outer arm extends vertically, and bearing, at its free end, a device for connecting/disconnecting to or from a ship manifold, the arrangement of articulated arms further including a balancing counterweight of the outer arm, which is mounted on an axial extension of the inner arm at the support structure and connected to the outer arm by connecting means, the extension also supporting a balancing counterweight of the inner arm, characterized in that it further comprises a rotary joint whereof the axis extends in the longitudinal direction of the inner arm and which is arranged at the articulation of the inner arm to the support structure, the balancing counterweight of the outer arm being mounted on the inner arm so as to rotate with this arm when the latter rotates around its longitudinal axis.
An optical anti-counterfeiting element, comprising: a substrate, comprising a first surface and a second surface opposite each other; a first micro-embossment structure at least partially covering the first surface, the first micro-embossment structure comprising a first micro-lens array and a first micro-graph array; and a second micro-embossment structure at least partially covering the second surface, the second micro-embossment structure comprising a second micro-lens array and a second micro-graph array; and the first micro-lens array is configured to sample and synthesize the second micro-graph array, so as to form a first reproduced image, and the second micro-lens array is configured to sample and synthesize the first micro-graph array, so as to form a second reproduced image; characterized in that a machining depth of the first micro-embossment structure and the second micro-embossment structure is less than 30 microns; and/or a height of the first micro-lens array and the second micro-lens array is not greater than 20 microns; and/or a machining depth of the first micro-graph array and the second micro-graph array is 0.2-10 microns. a substrate, comprising a first surface and a second surface opposite each other; a first micro-embossment structure at least partially covering the first surface, the first micro-embossment structure comprising a first micro-lens array and a first micro-graph array; and a second micro-embossment structure at least partially covering the second surface, the second micro-embossment structure comprising a second micro-lens array and a second micro-graph array; and the first micro-lens array is configured to sample and synthesize the second micro-graph array, so as to form a first reproduced image, and the second micro-lens array is configured to sample and synthesize the first micro-graph array, so as to form a second reproduced image; characterized in that a machining depth of the first micro-embossment structure and the second micro-embossment structure is less than 30 microns; and/or a height of the first micro-lens array and the second micro-lens array is not greater than 20 microns; and/or a machining depth of the first micro-graph array and the second micro-graph array is 0.2-10 microns.
An extendible enclosure, comprising: a first frame member supporting a first mesh canopy; a second frame member supporting a second mesh canopy, wherein the first and second mesh canopies (14a, 14b) are formed of a mesh material; and a sliding mechanism (16a, 16b) coupling the first frame member to the second frame member and operable to reversibly extend the enclosure between a first contracted position and a second extended position, and wherein the first frame member is configured to slidingly engage with the second frame member so that the second frame member at least partially nests within the first frame member when in the first contracted position, and wherein the first frame member and the second frame member each include two side walls, two end walls, a top and a bottom, and characterised in that the first mesh canopy covers only the two side walls and the top of the first frame member with the mesh material and the second mesh canopy covers only the two side walls and the top of the second frame member with the mesh material, such that, in use, the interior of the enclosure can be directly accessed via either of the end walls of the first and second frame members (12a, 12b). a first frame member supporting a first mesh canopy; a second frame member supporting a second mesh canopy, wherein the first and second mesh canopies (14a, 14b) are formed of a mesh material; and a sliding mechanism (16a, 16b) coupling the first frame member to the second frame member and operable to reversibly extend the enclosure between a first contracted position and a second extended position, and wherein the first frame member is configured to slidingly engage with the second frame member so that the second frame member at least partially nests within the first frame member when in the first contracted position, and wherein the first frame member and the second frame member each include two side walls, two end walls, a top and a bottom, and characterised in that the first mesh canopy covers only the two side walls and the top of the first frame member with the mesh material and the second mesh canopy covers only the two side walls and the top of the second frame member with the mesh material, such that, in use, the interior of the enclosure can be directly accessed via either of the end walls of the first and second frame members (12a, 12b).
Method for the treatment of the alkaline purge, without using organic solvents, from a propylene oxide/styrene production process, wherein said alkaline purge is the aqueous waste stream from the washing process of the product resulting from the epoxidation of propylene with ethylbenzene hydroperoxide, which comprises the following steps: a. acidification of said alkaline aqueous stream with sulphuric acid at a pH less than 4.5 and a temperature greater than 50°C; b. separation of the two phases resulting in step (a) at a temperature greater than 40°C. c. washing of the organic phase produced in step (b) with an acid aqueous solution, using an excess of acid in relation to the stoichiometric quantity corresponding to the sodium present in the organic phase; d. separation of the two phases produced in (c). a. acidification of said alkaline aqueous stream with sulphuric acid at a pH less than 4.5 and a temperature greater than 50°C; b. separation of the two phases resulting in step (a) at a temperature greater than 40°C. c. washing of the organic phase produced in step (b) with an acid aqueous solution, using an excess of acid in relation to the stoichiometric quantity corresponding to the sodium present in the organic phase; d. separation of the two phases produced in (c).
A system for providing encryption key management, the system comprising one or more servers, and a key material source for providing one or more encryption keys, the one or more servers comprising at least one processor and at least one non-transitory memory storing instructions that, when executed by the processor, configure the one or more servers to: receive, by the one or more servers, access to one or more encryption keys provided by the key material source, the encryption keys for accessing data managed by the one or more servers; wherein access to encryption keys is revocable on a per keyscope component basis, such that any encryption key associated with a revoked keyscope component is rendered invalid by the key material source; and, receive, by the one or more servers, encrypted plaintext or decrypted ciphertext, wherein the encrypted plaintext is encrypted using the one or more encryption keys provided by the key material source, wherein the plaintext comprises one or more of a message plaintext, a file plaintext or a search index encryption key. receive, by the one or more servers, access to one or more encryption keys provided by the key material source, the encryption keys for accessing data managed by the one or more servers; wherein access to encryption keys is revocable on a per keyscope component basis, such that any encryption key associated with a revoked keyscope component is rendered invalid by the key material source; and, receive, by the one or more servers, encrypted plaintext or decrypted ciphertext, wherein the encrypted plaintext is encrypted using the one or more encryption keys provided by the key material source, wherein the plaintext comprises one or more of a message plaintext, a file plaintext or a search index encryption key.
A vehicle door access system configured to control access to a vehicle via the vehicle door the vehicle door access system comprising; an image capture device (20, 22) configured to capture a first image of a user external to the vehicle and a second moving image of the user external to the vehicle; a comparator module (34, 36) configured to compare the first captured image of the user with a first user identifier and to compare the second captured image with a second user identifier which is a moving image of the user; and a door lock control module configured to control the lock status of the vehicle door if both the first and second captured images, respectively, correspond to the first and second user identifiers, wherein the image capture device (20, 22) is mounted on the side of the vehicle and is configured to remain deactivated when the ignition is started and the engine is running.
An interrupting chamber having a longitudinal axis (XX') and comprising: · a single pair of contacts (2, 3), at least one of which is adapted to be moved in straight line motion along the longitudinal axis (XX') by an operating rod; · an insulating arc blast nozzle of generally tubular form, which is also movable in straight line motion along the longitudinal axis (XX'); wherein the or each moving contact and the tubular nozzle are movable independently of each other, said intempting chamber being characterized in that: · a pair of grading shields (40, 41) arranged with their respective shield walls (400, 410) separated from each other by a given fixed distance along the longitudinal axis (XX') so as to define an insulating space, said grading shields being arranged individually around each of the contacts of said single pair whatever may be their position; and · in the closed position of the contacts, the tubular nozzle is in a position referred to as the confinement position, in which it extends at least into said insulating space, having a length e, between the contacts (2, 3) and the shield walls (400, 410) of the grading shields (40, 41); · during an opening operation, the tubular nozzle remains held substantially in its confinement position, at least until the or each moving contact has reached the open position; · once the opening operation is complete and all current broken, the tubular nozzle is moved into a position referred to as the retracted position, in which it is retracted from said insulating space, wherein the nozzle is held, during an opening operation, in its confinement position by pneumatic pressure of the insulating gas of the chamber acting on the nozzle. · a single pair of contacts (2, 3), at least one of which is adapted to be moved in straight line motion along the longitudinal axis (XX') by an operating rod; · an insulating arc blast nozzle of generally tubular form, which is also movable in straight line motion along the longitudinal axis (XX'); · a pair of grading shields (40, 41) arranged with their respective shield walls (400, 410) separated from each other by a given fixed distance along the longitudinal axis (XX') so as to define an insulating space, said grading shields being arranged individually around each of the contacts of said single pair whatever may be their position; and · in the closed position of the contacts, the tubular nozzle is in a position referred to as the confinement position, in which it extends at least into said insulating space, having a length e, between the contacts (2, 3) and the shield walls (400, 410) of the grading shields (40, 41); · during an opening operation, the tubular nozzle remains held substantially in its confinement position, at least until the or each moving contact has reached the open position; · once the opening operation is complete and all current broken, the tubular nozzle is moved into a position referred to as the retracted position, in which it is retracted from said insulating space,
A Lactobacillus bacterium comprising a promoter and coding sequence that encodes GLP-1 for use in the treatment of type 2 diabetes or Metabolic Syndrome.
Device for fixing floating bodies, in particular boats and pontoons, to a landing body, having at least two holding trees, which are each fixed at one end on the floating body and at the other end on the landing body by means of fittings at respective mooring points, the holding trees consisting of two subtrees (6, 7) which are telescopically displaceable one inside the other and supported against one another by a spring unit, wherein the spring unit comprises stop bodies arranged at a spaced interval in the tree longitudinal direction and elastomeric spring bodies provided between the stop bodies, and wherein the stop bodies engage over the spring bodies with stop projections protruding in the tree longitudinal direction while leaving open a receiving space, characterised in that the volume thereof corresponds at least to the displacement volume of the elastomeric spring bodies in the stop position of the stop bodies, wherein an annular spring driver which is arranged between two spring packets (13, 14) and is fixed at least in the tree longitudinal direction on the subtree with pins is allocated to one subtree, said spring driver having, on each of two end faces facing away from one another, a support for one of the two spring packets (13, 14), these spring packets (13, 14) being supported at the other end on the subtree, wherein the spring packet is supported via a further annular element and a spacer sleeve on the tree base and the spring packet is supported on a collar.