mhurhangee/ep-ind-claims huggingface dataset:
An organic light emitting device comprising: a substrate; an encapsulation substrate; an organic light emitting unit interposed between the substrate and the encapsulation substrate; and a water vapor absorption material-containing sealant layer that covers at least a portion of the organic light emitting unit, wherein the substrate and the encapsulation substrate are interconnected via the water vapor absorption material-containing sealant layer, characterized in that the water vapor absorption material-containing sealant layer comprising: a sealant having a water vapor transmission rate, WVTR, of 20 g/m 2 ·day or less, as measured using a film of the sealant having a thickness of 100 μm in an environment at the temperature of 38 °C and the relative humidity of 100%, wherein the sealant is substantially transparent; and a water vapor absorption material selected from the group consisting of metal oxide and metal salt and having average particle sizes of 100 nm or less, and the sealant comprises an epoxy silane or derivative thereof or epoxy acrylate. a substrate; an encapsulation substrate; an organic light emitting unit interposed between the substrate and the encapsulation substrate; and a water vapor absorption material-containing sealant layer that covers at least a portion of the organic light emitting unit, wherein the substrate and the encapsulation substrate are interconnected via the water vapor absorption material-containing sealant layer, characterized in that the water vapor absorption material-containing sealant layer comprising: a sealant having a water vapor transmission rate, WVTR, of 20 g/m 2 ·day or less, as measured using a film of the sealant having a thickness of 100 μm in an environment at the temperature of 38 °C and the relative humidity of 100%, wherein the sealant is substantially transparent; and a water vapor absorption material selected from the group consisting of metal oxide and metal salt and having average particle sizes of 100 nm or less, and the sealant comprises an epoxy silane or derivative thereof or epoxy acrylate. a sealant having a water vapor transmission rate, WVTR, of 20 g/m 2 ·day or less, as measured using a film of the sealant having a thickness of 100 μm in an environment at the temperature of 38 °C and the relative humidity of 100%, wherein the sealant is substantially transparent; and a water vapor absorption material selected from the group consisting of metal oxide and metal salt and having average particle sizes of 100 nm or less, and the sealant comprises an epoxy silane or derivative thereof or epoxy acrylate.
A multilayer balloon for a catheter comprising: a first layer made of a first polymer material having a first Shore durometer hardness; a second layer made of a second polymer material having a second Shore durometer hardness greater than the first Shore durometer hardness, wherein the second layer is an inner layer relative to the first layer; a third layer made of a third polymer material having a third Shore durometer hardness less the first Shore durometer hardness, wherein the third layer is an inner layer relative to the second layer. a first layer made of a first polymer material having a first Shore durometer hardness; a second layer made of a second polymer material having a second Shore durometer hardness greater than the first Shore durometer hardness, wherein the second layer is an inner layer relative to the first layer; a third layer made of a third polymer material having a third Shore durometer hardness less the first Shore durometer hardness, wherein the third layer is an inner layer relative to the second layer.
A method of promoting network security in a wireless local area network, 'WLAN', the WLAN comprising one or more WLAN cells, the one or more WLAN cells comprising each a wireless access point, the method comprising: at a mobile communication device having a mobile wireless access point functionality: receiving one or more precluded WLAN identifiers; receiving one or more permissible channels; selecting a channel from the one or more permissible channels, the selecting resulting in a selected channel; monitoring the selected channel for the one or more precluded WLAN identifiers, wherein the mobile wireless access point functionality is activated using selected channel, and wherein the monitoring the selected channel for the one or more precluded WLAN identifiers is conditional upon determining that the mobile communication device is in motion; and upon detection (612: Y) of the one or more precluded WLAN identifiers, preventing the mobile wireless access point functionality at the mobile communication device from using the one or more precluded WLAN identifiers. receiving one or more precluded WLAN identifiers; receiving one or more permissible channels; selecting a channel from the one or more permissible channels, the selecting resulting in a selected channel; monitoring the selected channel for the one or more precluded WLAN identifiers, wherein the mobile wireless access point functionality is activated using selected channel, and wherein the monitoring the selected channel for the one or more precluded WLAN identifiers is conditional upon determining that the mobile communication device is in motion; and upon detection (612: Y) of the one or more precluded WLAN identifiers, preventing the mobile wireless access point functionality at the mobile communication device from using the one or more precluded WLAN identifiers.
A device for freezing and thawing a therapeutic cell mixture, comprising a container comprising; a first open end having a first diameter (d 1); a second open end having a second diameter (d 2) that is smaller than the first diameter; a lumen, comprising a lumen wall, in fluid communication with the first and second open end, and having a lumen diameter (d L) that is similar to the first diameter, wherein the container is constructed of one or more biocompatible materials that maintain structural integrity when frozen at less than about -130 °C and thawed; a first polymeric seal configured to seat within the lumen and create a sealing contact with the lumen wall; a first polymeric cap designed to seal the first open end; a second polymeric cap designed to seal the second open end; wherein the container defines a syringe barrel, and the first polymeric seal is a piston or plunger. a first open end having a first diameter (d 1); a second open end having a second diameter (d 2) that is smaller than the first diameter; a lumen, comprising a lumen wall, in fluid communication with the first and second open end, and having a lumen diameter (d L) that is similar to the first diameter, wherein the container is constructed of one or more biocompatible materials that maintain structural integrity when frozen at less than about -130 °C and thawed; a first polymeric seal configured to seat within the lumen and create a sealing contact with the lumen wall; a first polymeric cap designed to seal the first open end; a second polymeric cap designed to seal the second open end; wherein the container defines a syringe barrel, and the first polymeric seal is a piston or plunger.
Wrench for providing a maximum torque to an external part, characterised in that it comprises a torque-applying head and at least one elongated metal part that pushes the torque-applying head, wherein the elongated metal part is formed along a longitudinal direction and is provided with a fixed end and a pusher end, wherein the pusher end of the elongated metal part pushes a pusher member that acts on the torque-applying head, wherein the pusher end is capable of moving along said longitudinal direction and the elongated metal part is capable of buckling when torque is applied with the wrench, and wherein the elongated metal part reaches a maximum buckling point that determines the maximum torque provided by the wrench.
A foldable array substrate comprising: a base substrate, a gate metal layer disposed on one side of the base substrate, a source-drain metal layer disposed on the side of the gate metal layer opposite to the base substrate, and an insulating layer (112, 113) disposed between the gate metal layer and the source-drain metal layer, wherein the gate metal layer comprises a gate line, the source-drain metal layer comprises a data line, and the gate line is arranged in an intersecting manner with the data line to define a plurality of pixel units on the base substrate, the foldable array substrate further comprises a plurality of holes disposed in the insulating layer (112, 113), which are not disposed in a pixel unit and do not intersect with the pixel unit, wherein the plurality of holes comprise a plurality of first type of holes, the first type of holes do not intersect with a metal portion of each metal layer of the foldable array substrate and extend from one side of the insulating layer (112, 113) opposite to the base substrate to the base substrate, and the foldable array substrate further comprises a first preset punching area reserved between two rows of pixel units adjacent to each other, and a second preset punching area reserved between two columns of pixel units adjacent to each other, wherein the plurality of holes are disposed in the first preset punching area and the second preset punching area to improve an anti-bending capacity of the foldable array substrate, characterized in that the plurality of holes comprise a second type of holes, the second type of holes extend from one side of the insulating layer (112, 113) opposite to the base substrate to a metal wiring in the gate metal layer. the gate metal layer comprises a gate line, the source-drain metal layer comprises a data line, and the gate line is arranged in an intersecting manner with the data line to define a plurality of pixel units on the base substrate, the foldable array substrate further comprises a plurality of holes disposed in the insulating layer (112, 113), which are not disposed in a pixel unit and do not intersect with the pixel unit, wherein the plurality of holes comprise a plurality of first type of holes, the first type of holes do not intersect with a metal portion of each metal layer of the foldable array substrate and extend from one side of the insulating layer (112, 113) opposite to the base substrate to the base substrate, and the foldable array substrate further comprises a first preset punching area reserved between two rows of pixel units adjacent to each other, and a second preset punching area reserved between two columns of pixel units adjacent to each other, wherein the plurality of holes are disposed in the first preset punching area and the second preset punching area to improve an anti-bending capacity of the foldable array substrate, characterized in that the plurality of holes comprise a second type of holes, the second type of holes extend from one side of the insulating layer (112, 113) opposite to the base substrate to a metal wiring in the gate metal layer.
Network control unit comprising: - a noise generation unit for generating low power noise signals (s1, s2, s3) in respective frequency bands; - power amplifier blocks for respectively amplifying the low power noise signals (s1, s2, S3) into noise signals (S1, S2, S3); and - a multi-band combiner designed for summing the noise signals (S1, S2, S3) into a single output signal (S O) to be provided to an antenna; characterized in that the network control unit further comprises, for at least one of the power amplifier blocks, a circulator connected between this power amplifier block and the multi-band combiner. - a noise generation unit for generating low power noise signals (s1, s2, s3) in respective frequency bands; - power amplifier blocks for respectively amplifying the low power noise signals (s1, s2, S3) into noise signals (S1, S2, S3); and - a multi-band combiner designed for summing the noise signals (S1, S2, S3) into a single output signal (S O) to be provided to an antenna;
An inhibitor for transcription factor function comprising a fusion protein consisting of a transcription modulating domain of a transcription factor and a protein transduction domain, wherein the TMD is the DNA-binding domain of said transcription factor, characterized in that the PTD is selected from the group consisting of Hph-1, HP4, Mph-1, Sim-2, Tat, VP22, Antp (Antennapedia), Pep-1 peptide, PTD-5, R9 (nona-arginine), 7R and CTP (Cytoplasmic Transduction Peptide), wherein the transcription factor is FOXP3 (Forkhead box P3).
An arrangement to be used for cleaning of a circumferentially closed canal, comprising a laser radiation source arranged within a laser device, a light guide conducting a laser beam as well as a handpiece, wherein the handpiece is detachably, and preferably rotationally, connected to a delivery device, via which at least the laser beam and a liquid can be fed to the handpiece, as well as a first line guiding the liquid, that extends with its aperture side in the region of the light guide, characterised in that the aperture of the first line guiding the liquid is arranged in such a way, that the liquid is directed towards the last 1/3 of the light guide with an angle between 10° and 20° with respect to the longitudinal axis of the light guide, wherein the laser beam is directable into a canal via the light guide which is detachably connected with the handpiece, wherein mechanism are provided ensuring that a laser operation is only possible when the light guide is placed in the canal, and at least one fluid container containing cleaning fluid is attached to the laser device, wherein said at least one fluid container is a pre-pressurized fluid container.
A 7xxx series aluminum alloy having a composition comprising, by weight %: 1.0-1.8% Mg 7.0-8.3% Zn 0.10-0.25% Zr 0.02 - 0.80% Cu ≤0.3% Si ≤<0.4% Fe ≤<0.4% Mn ≤<0.1% Ti 7.0-9.9% MgZn 2 with other elements restricted as unavoidable impurities limited to 0.05% each and 0.15% total; and the balance aluminum. 1.0-1.8% Mg 7.0-8.3% Zn 0.10-0.25% Zr 0.02 - 0.80% Cu ≤0.3% Si ≤<0.4% Fe ≤<0.4% Mn ≤<0.1% Ti 7.0-9.9% MgZn 2
A mobile capsule device, comprising: a long capsule body provided with a permanent magnet and a coil, the permanent magnet being movable in the lengthwise direction with respect to the capsule body, the coil driving the permanent magnet, the coil being applied an alternate current through an alternate current generating means to perform a back and forth vibration of the permanent magnet and generate a propulsion force entirely, wherein the coil has first and second coil parts (15, 16), the first and second coil parts (15, 16) are wound around a cylinder-shaped body having an interspace between the cylinder-shaped body and the permanent magnet to enable inside movements of the permanent magnet, the first and second coil parts provided with spaces in the front and back of the cylinder-shaped body, a frequency of an alternate current applied to the first and second coil parts (15, 16) is made to accord with a resonance frequency of the capsule device generated by a back and forth vibration of the permanent magnet, stoppers (17, 18) are arranged on both sides of the cylinder-shaped body; and the permanent magnet vibrates while crashing into the stoppers (17, 18). a long capsule body provided with a permanent magnet and a coil, the permanent magnet being movable in the lengthwise direction with respect to the capsule body, the coil driving the permanent magnet, the coil being applied an alternate current through an alternate current generating means to perform a back and forth vibration of the permanent magnet and generate a propulsion force entirely, wherein the coil has first and second coil parts (15, 16), the first and second coil parts (15, 16) are wound around a cylinder-shaped body having an interspace between the cylinder-shaped body and the permanent magnet to enable inside movements of the permanent magnet, the first and second coil parts provided with spaces in the front and back of the cylinder-shaped body, a frequency of an alternate current applied to the first and second coil parts (15, 16) is made to accord with a resonance frequency of the capsule device generated by a back and forth vibration of the permanent magnet, stoppers (17, 18) are arranged on both sides of the cylinder-shaped body; and the permanent magnet vibrates while crashing into the stoppers (17, 18).
A method for manufacturing of a powder mixture for a battery electrode comprising the following steps: Suspending of particles of at least one binder within an inert solvent producing a first suspension; suspending of particles of an active material within said first suspension producing a second suspension; Drying of said second suspension producing a granulate material, wherein olefines or cyclic olefines or ethers or alcohols are used as inert solvent. Suspending of particles of at least one binder within an inert solvent producing a first suspension; suspending of particles of an active material within said first suspension producing a second suspension; Drying of said second suspension producing a granulate material, wherein olefines or cyclic olefines or ethers or alcohols are used as inert solvent.
A method for an economical cruise control which demands from an engine system a reference speed v ref which may differ from a chosen set speed v set, characterised in that adjustment of at least said reference speed v ref is allowed if said reference speed v ref differs from said set speed v set, which adjustment is based on input from a user of said economical cruise control, wherein the set speed v set does not change at the time of said input.
An exhaust gas feed device for an internal combustion engine, comprising: an exhaust gas recirculation duct, an air intake duct into which the exhaust gas recirculation duct opens, and a flow-guiding element arranged in the exhaust gas recirculation duct at an end of the exhaust gas recirculation duct, characterized in that the flow-guiding element is configured as a swirl generator, wherein a valve seat is formed at an outlet at the end of the exhaust gas recirculation duct in which the swirl generator is arranged, the valve seat being configured to limit an outflow cross-section of the exhaust gas recirculation duct, which is regulated via a regulator body of an exhaust gas recirculation valve, wherein the end of the exhaust gas recirculation duct, in which the flow-guiding element is arranged, is formed to taper in a frustoconical shape towards the outlet. an exhaust gas recirculation duct, an air intake duct into which the exhaust gas recirculation duct opens, and a flow-guiding element arranged in the exhaust gas recirculation duct at an end of the exhaust gas recirculation duct,
Rotational propulsion system of an aircraft, comprising an engine surrounded by an engine casing, the rotational propulsion system further comprising: - a row of rotating blades configured for rotating around the longitudinal axis of the engine, and - at least one vane configured for non-rotating around the longitudinal axis of the engine located in a position along the longitudinal axis of the engine different from the position in which the row of rotating blades is located, being said vane at one end attached to the engine casing, - the vane being configured for orienting the flow before or after the rotating blades so that the resulting final flow is mostly aligned with the trust direction of the engine, said vane, at its other end, comprises means for its attachment to the fuselage of the aircraft such that the engine is configured for being at least partially supported by the fuselage through said vane, the vane configured for being attached to the fuselage comprising a pitch mechanism to reorient the flow, the pitch mechanism comprising an actuator configured to be located at the fuselage side; characterised in that the vane configured for being attached to the fuselage is configured for transmitting its rotation to a transmission means located inside the engine that transmits rotation to other vanes of a row of vanes comprising said vane or to the blades of the row of rotating blades around their longitudinal axis. - a row of rotating blades configured for rotating around the longitudinal axis of the engine, and - at least one vane configured for non-rotating around the longitudinal axis of the engine located in a position along the longitudinal axis of the engine different from the position in which the row of rotating blades is located, being said vane at one end attached to the engine casing, - the vane being configured for orienting the flow before or after the rotating blades so that the resulting final flow is mostly aligned with the trust direction of the engine, said vane, at its other end, comprises means for its attachment to the fuselage of the aircraft such that the engine is configured for being at least partially supported by the fuselage through said vane, the vane configured for being attached to the fuselage comprising a pitch mechanism to reorient the flow, the pitch mechanism comprising an actuator configured to be located at the fuselage side; characterised in that the vane configured for being attached to the fuselage is configured for transmitting its rotation to a transmission means located inside the engine that transmits rotation to other vanes of a row of vanes comprising said vane or to the blades of the row of rotating blades around their longitudinal axis.
An injectable solution comprising a freeze-dried polymer composition comprising chitosan, a clot activator and at least one lyoprotectant reconstituted in platelet rich plasma, blood product or combinations thereof which upon injection: i) into tissue solidifies forming an implant for tissue repair; or ii) into an articular joint mixes with intra-articular fluids, wherein said chitosan has a molecular weight number from 20 to 125 kDa, wherein the at least one lyoprotectant is selected from the group consisting of monosaccharide, polyol, disaccharide, trisaccharide, oligosaccharide/polysaccharide, high molecular weight excipient, amino acid, protein and a combination thereof; wherein the clot activator is selected from the group consisting of calcium chloride, calcium gluconate, calcium acetate, calcium carbonate, calcium glubionate, calcium gluceptate, calcium lactate, calcium lactobionate, calcium phosphate and combinations thereof; and wherein the blood product is selected from the group consisting of PRP, PPP, PRF, platelet suspension, platelet lysate and combinations thereof. i) into tissue solidifies forming an implant for tissue repair; or ii) into an articular joint mixes with intra-articular fluids, wherein the at least one lyoprotectant is selected from the group consisting of monosaccharide, polyol, disaccharide, trisaccharide, oligosaccharide/polysaccharide, high molecular weight excipient, amino acid, protein and a combination thereof; wherein the clot activator is selected from the group consisting of calcium chloride, calcium gluconate, calcium acetate, calcium carbonate, calcium glubionate, calcium gluceptate, calcium lactate, calcium lactobionate, calcium phosphate and combinations thereof; and wherein the blood product is selected from the group consisting of PRP, PPP, PRF, platelet suspension, platelet lysate and combinations thereof.