mhurhangee/ep-ind-claims huggingface dataset:
A method for securing data, the method comprising: receiving a request for a security operation from a first virtual machine operating in a host operating system of a first device, wherein the request is to be performed by one of a plurality of security modules including a first security module, and wherein the request comprises a request to secure communication between the first virtual machine and a second virtual machine; in response to receiving the request, executing the security operation at the first security module implemented in a kernel of the host operating system; and providing a result of the security operation to the first virtual machine. receiving a request for a security operation from a first virtual machine operating in a host operating system of a first device, wherein the request is to be performed by one of a plurality of security modules including a first security module, and wherein the request comprises a request to secure communication between the first virtual machine and a second virtual machine; in response to receiving the request, executing the security operation at the first security module implemented in a kernel of the host operating system; and providing a result of the security operation to the first virtual machine.
A refrigerator comprising: an inner case including a storage chamber; an outer case configured to surround the inner case and including a rear panel with an air suction hole and a plurality of side panels (102, 103) configured to cover both sides of the inner case, the plurality of side panels (102, 103) being configured to be formed of a metal material; a door configured to open and close the storage chamber; a rear heat dissipation flow path located behind the inner case and communicated with the air suction hole; a case supporter configured to support the inner case; a base configured to support a lower side of the case supporter, at least a portion of the base being configured to be spaced apart from a lower side of the door and the case supporter; a lower heat dissipation flow path between the case supporter and the base and communicated with the rear heat dissipation flow path, an outlet of the lower heat dissipation flow path being disposed under the door; and a base panel configured to be attached to an upper surface of the base adjacent to the door and to form at least a portion of the lower heat dissipation flow path, the base panel being configured to be formed of the same material as that of the plurality of side panels (102, 103) or having a metal texture. an inner case including a storage chamber; an outer case configured to surround the inner case and including a rear panel with an air suction hole and a plurality of side panels (102, 103) configured to cover both sides of the inner case, the plurality of side panels (102, 103) being configured to be formed of a metal material; a door configured to open and close the storage chamber; a rear heat dissipation flow path located behind the inner case and communicated with the air suction hole; a case supporter configured to support the inner case; a base configured to support a lower side of the case supporter, at least a portion of the base being configured to be spaced apart from a lower side of the door and the case supporter; a lower heat dissipation flow path between the case supporter and the base and communicated with the rear heat dissipation flow path, an outlet of the lower heat dissipation flow path being disposed under the door; and a base panel configured to be attached to an upper surface of the base adjacent to the door and to form at least a portion of the lower heat dissipation flow path, the base panel being configured to be formed of the same material as that of the plurality of side panels (102, 103) or having a metal texture.
Liquid filled power bushing comprising: - an insulator comprising an insulator chamber for receiving an insulating liquid; - an expansion chamber communicating with the insulator chamber for enabling an expansion or contraction of the insulating liquid; - an electrical conductor located within the bushing and extending through the expansion chamber and the insulator chamber; a bellow located inside the expansion chamber, the bellow comprising an interior chamber with variable volume, characterized in that said interior chamber communicates via a channel with a space filled with gas and located outside the expansion chamber for enabling said gas to enter the interior chamber in case of an expansion of the volume of the interior chamber resulting from the contraction of the insulating liquid and being released from said interior chamber into said space in case of a contraction of the volume of the interior chamber resulting from the expansion of the insulating liquid, wherein the bellow is fixed to a removable closing lid of a top part of the expansion chamber. - an insulator comprising an insulator chamber for receiving an insulating liquid; - an expansion chamber communicating with the insulator chamber for enabling an expansion or contraction of the insulating liquid; - an electrical conductor located within the bushing and extending through the expansion chamber and the insulator chamber; a bellow located inside the expansion chamber, the bellow comprising an interior chamber with variable volume,
A product identification tag, characterized in that it further comprises a multi-branched dendritic structure comprising at least one metallic material, wherein the multi-branched dendritic structure is obtainable by a stochastic electrodeposition process; a substrate supporting the multi-branched dendritic structure; and a protective layer that contacts the multi-branched dendritic structure and the substrate and is positioned to enclose at least a portion of the multibranched dendritic structure.
An LED assembly, comprising: - a heat sink comprising a top mating surface that is solder wettable and a bottom mating surface that is solder wettable; - a submount comprising a bottom mating surface that is solder wettable, the submount being bonded atop the heat sink by a first solder; - an LED die bonded atop the submount; and - a substrate comprising a top mating surface that is solder wettable, wherein the heat sink is bonded atop of the substrate by a second solder; characterized in that - the heat sink comprises a flange portion of a cylindrical shape and a body portion of a cylindrical shape protruding from the flange portion, the body portion has a smaller diameter than the flange portion, and the body portion and the flange portion are axially aligned; - the top mating surface of the heat sink has a hexagon shape and is raised with respect to the body portion, the vertices of the hexagon coinciding with the circumferences of the body portion; - the bottom mating surface of the heat sink has a hexagon shape and is raised with respect to the flange portion, the vertices of the hexagon coinciding with the circumferences of the flange portion; - the bottom mating surface of the submount has the same shape and area as the top mating surface of the heat sink, and these mating surfaces are aligned with each other; and - the top mating surface of the substrate has the same shape and area as the bottom mating surface of the heat sink, and these mating surfaces are aligned with each other. - a heat sink comprising a top mating surface that is solder wettable and a bottom mating surface that is solder wettable; - a submount comprising a bottom mating surface that is solder wettable, the submount being bonded atop the heat sink by a first solder; - an LED die bonded atop the submount; and - a substrate comprising a top mating surface that is solder wettable, wherein the heat sink is bonded atop of the substrate by a second solder; - the heat sink comprises a flange portion of a cylindrical shape and a body portion of a cylindrical shape protruding from the flange portion, the body portion has a smaller diameter than the flange portion, and the body portion and the flange portion are axially aligned; - the top mating surface of the heat sink has a hexagon shape and is raised with respect to the body portion, the vertices of the hexagon coinciding with the circumferences of the body portion; - the bottom mating surface of the heat sink has a hexagon shape and is raised with respect to the flange portion, the vertices of the hexagon coinciding with the circumferences of the flange portion; - the bottom mating surface of the submount has the same shape and area as the top mating surface of the heat sink, and these mating surfaces are aligned with each other; and - the top mating surface of the substrate has the same shape and area as the bottom mating surface of the heat sink, and these mating surfaces are aligned with each other.
A lyophilized pharmaceutical preparation comprising (i) melphalan flufenamide, or a pharmaceutically acceptable salt thereof; and (ii) sucrose. (i) melphalan flufenamide, or a pharmaceutically acceptable salt thereof; and (ii) sucrose.
A robotic printing system for an exterior surface of an aircraft comprising: a robotic printer, the robotic printer comprising: a body; a plurality of vacuum suction cups mounted to the body for attaching the robotic printer to the exterior surface of the aircraft, wherein the plurality of vacuum suction cups are configured to move the robotic printer along the exterior surface of the aircraft; a printing head mounted to the body, wherein the printing head is positioned to apply a print medium to the exterior surface of the aircraft; and a laser-based positioning device mounted to the body for determining a position of the robotic printer on the exterior surface of the aircraft. a body; a plurality of vacuum suction cups mounted to the body for attaching the robotic printer to the exterior surface of the aircraft, wherein the plurality of vacuum suction cups are configured to move the robotic printer along the exterior surface of the aircraft; a printing head mounted to the body, wherein the printing head is positioned to apply a print medium to the exterior surface of the aircraft; and a laser-based positioning device mounted to the body for determining a position of the robotic printer on the exterior surface of the aircraft.
A method of selecting a subset of microbes for the production of a metabolite comprising providing a population of microbes, wherein the population of microbes has been genetically modified to include exogenous DNA encoding for a reporter, the reporter being a fluorescent protein, optionally selected from the group consisting of mPlum, mCherry, tdTomato, mStrawberry, J-Red, DsRed-monomer, mOrange, mKO, mCitrine, Venus, YPet, EYFP, Emerald, EGFP, CyPet, mCFPm, Cerulean, T-Sapphire, Firefly (FLuc), modified firefly (Ultra-Clo), Click beetle (CBLuc), Sea pansy (RLuc), Copepod crustacean (GLuc), and Ostracod crustacean (CLuc), wherein the population of microbes has been genetically modified to include exogenous DNA encoding a sensor biomolecule, wherein the sensor biomolecule is a transcription regulator, which when expressed regulates expression of the reporter by the microbes, wherein the population of microbes has been genetically modified to include exogenous DNA encoding genes to produce a metabolite binding partner of the sensor, wherein the sensor biomolecule and the metabolite binding partner is a member pair selected from the group consisting of CdaR/glucaric acid, TtgR/naringennin, MphR/macrolides, TetR/tetracycline derivates, BenM/muconic acid, AlkS/medium chain n-alkanes, XylR/xylose, AraC/Arabinose, GntR/Gluconate, GalS/Galactose, TrpR/tryptophan, QacR/Berberine, RmrR/Phytoalexin, CymR/Cumate, MelR/Melibiose, RafR/Raffinose, NahR/Salicylate, NocR/Nopaline, ClcR/Chlorobenzoate, VarR/Virginiamycin, RhaR/Rhamnose, PhoR/Phosphate, MalK/Malate, GlnK/Glutamine, Retinoic acid receptor/Retinoic acid, Estrogen receptor/Estrogen and Ecdysone receptor/Ecdysone, and wherein the microbes produce the metabolite binding partner which binds to the sensor to induce expression of the reporter in a manner dependent on the concentration of the produced metabolite, and screening the population of microbes by detecting the reporter to identify a subset of microbes.
A device for providing electrical contact between a stator and at least two rotor rings (41A, 41B, 41C, 41D, 53A, 53B, 53C, 54D,70, 88, 90), further comprising: - at least two current-carrying spring assemblies (34A, 34B, 34C, 34D, 59A, 59B, 59C, 59D, 63, 81, 82) mounted on said stator, - each spring assembly (34A, 34B, 34C, 34D, 59A, 59B, 59C, 59D, 63, 81, 82) having a central elongated current carrying brush spring (31, 64, 84) and superconducting ribbons (32, 33, 65, 65, 85, 85) mounted on two opposite surfaces (66, 68) of the brush spring (31, 64, 84), - at least one fibrous brush assembly (35, 69) mounted on each spring assembly (34A, 34B, 34C, 34D, 59, 63, 81, 82), each brush assembly (35, 69) having a bundle of fibers (36, 71) arranged such that the tips of said fibers will engage an associated rotor ring (41A, 41B, 41C, 41D, 53A, 53B, 53C, 54D,70, 88, 90) for transferring electrical current between said stator and said associated rotor ring (41A, 41B, 41C, 41D, 53A, 53B, 53C, 54D,70, 88, 90); - another ribbon (29, 77, 86) of superconducting material mounted on the inside diameter of said rotor rings; and - wherein said device is submerged in a cryogenic fluid at a temperature below the transition temperatures of said superconducting materials such that the electrical resistivity of said device will be reduced to substantially-zero and the current-transferring capability of said device will be increased. - at least two current-carrying spring assemblies (34A, 34B, 34C, 34D, 59A, 59B, 59C, 59D, 63, 81, 82) mounted on said stator, - each spring assembly (34A, 34B, 34C, 34D, 59A, 59B, 59C, 59D, 63, 81, 82) having a central elongated current carrying brush spring (31, 64, 84) and superconducting ribbons (32, 33, 65, 65, 85, 85) mounted on two opposite surfaces (66, 68) of the brush spring (31, 64, 84), - at least one fibrous brush assembly (35, 69) mounted on each spring assembly (34A, 34B, 34C, 34D, 59, 63, 81, 82), each brush assembly (35, 69) having a bundle of fibers (36, 71) arranged such that the tips of said fibers will engage an associated rotor ring (41A, 41B, 41C, 41D, 53A, 53B, 53C, 54D,70, 88, 90) for transferring electrical current between said stator and said associated rotor ring (41A, 41B, 41C, 41D, 53A, 53B, 53C, 54D,70, 88, 90); - another ribbon (29, 77, 86) of superconducting material mounted on the inside diameter of said rotor rings; and - wherein said device is submerged in a cryogenic fluid at a temperature below the transition temperatures of said superconducting materials such that the electrical resistivity of said device will be reduced to substantially-zero and the current-transferring capability of said device will be increased.
Memory card reader body comprising, on an inner face, a receiving recess for receiving a memory card connector, the receiving recess comprising at least one electrically conductive track forming a mesh for protecting the memory card connector, characterised in that said at least one electrically conductive track further extends on an outer face of the memory card reader body by means of at least one via passing through said inner and outer faces.
A control switch, comprising: an electrical rotary switch with a shaft extending therefrom, the shaft providing a primary axis of rotation; a thumb button actuator providing a slide switch user interface; an orthogonally-oriented rotary lever having a lever arm extending therefrom, the orthogonally-oriented rotary lever being orthogonal relative to the primary axis of rotation of the shaft; characterised by a non-orthogonal transfer arm coupled between the thumb button actuator and the lever arm of the orthogonally-oriented rotary lever, the non-orthogonal transfer arm being non-orthogonal relative to the primary axis of rotation of the shaft; and the shaft being rotatable by the orthogonally-oriented rotary lever via linear, non-orthogonal motion transferred by the non-orthogonal transfer arm in response to a sliding actuation of the thumb button actuator. an electrical rotary switch with a shaft extending therefrom, the shaft providing a primary axis of rotation; a thumb button actuator providing a slide switch user interface; an orthogonally-oriented rotary lever having a lever arm extending therefrom, the orthogonally-oriented rotary lever being orthogonal relative to the primary axis of rotation of the shaft; characterised by a non-orthogonal transfer arm coupled between the thumb button actuator and the lever arm of the orthogonally-oriented rotary lever, the non-orthogonal transfer arm being non-orthogonal relative to the primary axis of rotation of the shaft; and the shaft being rotatable by the orthogonally-oriented rotary lever via linear, non-orthogonal motion transferred by the non-orthogonal transfer arm in response to a sliding actuation of the thumb button actuator.
A mask provided with a latch in the form of an oblong thin sheet, having a vertical direction and a lateral direction X(), and including a first and second lateral edges (11, 12) extending in the lateral direction and a first and second end edges (13, 14) extending in the vertical direction, comprising: a first latching part (20, 50) for disengageably latching one fastening cord of the mask; and a second latching part positioned on the second end edge side of the first latching part(20, 50), and having an insertion through hole for inserting the other fastening cord of the mask in advance, wherein the first latching part (20, 50) has a guide channel (21, 51) extending from the first lateral edge, and a first latching hole connected to the guide channel (21, 51), characterized in that the second latching part has a second latching hole communicating with the insertion through hole, and having an outer shape smaller than that, and the first latching hole and the second latching hole are directed in directions opposed to one another in the lateral direction. a first latching part (20, 50) for disengageably latching one fastening cord of the mask; and a second latching part positioned on the second end edge side of the first latching part(20, 50), and having an insertion through hole for inserting the other fastening cord of the mask in advance, wherein the first latching part (20, 50) has a guide channel (21, 51) extending from the first lateral edge, and a first latching hole connected to the guide channel (21, 51), characterized in that the second latching part has a second latching hole communicating with the insertion through hole, and having an outer shape smaller than that, and the first latching hole and the second latching hole are directed in directions opposed to one another in the lateral direction.
A zero-heat-flux temperature measurement system for measuring deep tissue temperature using a probe with first and second flexible substrate layers (103,105) sandwiching a layer of thermally insulating material and a tab with electrical contact pads, in which a heater and a first thermal sensor and a programmable memory device are disposed on the first substrate layer, and a second thermal sensor is disposed on the second substrate layer, the system including: a controller with a signal connector jack and an emulation unit; a probe signal interface cable with first and second ends; a first connector attached to the first end of the probe signal interface cable for detachably connecting to the tab; and, a second connector attached to the second end of the probe signal interface cable for being inserted into and removed from the signal connector jack in the controller; in which the probe signal interface cable and the first and second connectors are a single integrated element separate from the probe, wherein the emulation unit is operative to produce an output signal at an output jack that conforms to a common signal interface for electronic medical equipment, and in which the controller includes probe control logic, and the zero-heat-flux temperature system further includes an information switch having a first state in which the information switch is operative to connect thermistor signals from the probe signal interface cable to the probe control logic and a second state in which the information switch is operative to connect programmable memory device information from the probe signal interface cable to the control logic. a controller with a signal connector jack and an emulation unit; a probe signal interface cable with first and second ends; a first connector attached to the first end of the probe signal interface cable for detachably connecting to the tab; and, a second connector attached to the second end of the probe signal interface cable for being inserted into and removed from the signal connector jack in the controller; in which the probe signal interface cable and the first and second connectors are a single integrated element separate from the probe, wherein the emulation unit is operative to produce an output signal at an output jack that conforms to a common signal interface for electronic medical equipment, and in which the controller includes probe control logic, and the zero-heat-flux temperature system further includes an information switch having a first state in which the information switch is operative to connect thermistor signals from the probe signal interface cable to the probe control logic and a second state in which the information switch is operative to connect programmable memory device information from the probe signal interface cable to the control logic.
A master aircraft, comprising: a flight emulator comprising a pilot control interface and a motion-control seat, wherein the flight emulator is configured to allow a user of the flight emulator to assume control of a slave aircraft connected in communication to the flight emulator through a network, and wherein the pilot control interface is configured to provide an input to operate the slave aircraft; characterized in that the motion-control seat is selectively articulated to minimize for the user the perception of the motion of, orientation of, or forces acting on the master aircraft while simulating the motion of, orientation of, or forces acting on the slave aircraft when the user assumes control of the slave aircraft. a flight emulator comprising a pilot control interface and a motion-control seat, wherein the flight emulator is configured to allow a user of the flight emulator to assume control of a slave aircraft connected in communication to the flight emulator through a network, and wherein the pilot control interface is configured to provide an input to operate the slave aircraft; characterized in that the motion-control seat is selectively articulated to minimize for the user the perception of the motion of, orientation of, or forces acting on the master aircraft while simulating the motion of, orientation of, or forces acting on the slave aircraft when the user assumes control of the slave aircraft.