mhurhangee/ep-ind-claims huggingface dataset:
A lighting device comprising: a housing; a coupling member coupled to the housing; a reflector disposed between the housing and the coupling member; a light source unit connected to the coupling member; and an optical member connected to the light source unit, wherein the optical member transmits a part of light emitted from the light source unit and reflects the other part of the light to the reflector, Characterized in that: the light source unit comprises a body unit (310a, 310b) and a light emitting module (320a, 320b) disposed on a bottom surface of the body unit (310a, 310b), wherein the body unit (310a, 310b) comprises a first body and a second body disposed on one side of the first body, wherein the light emitting module (320a, 320b) comprises a first light emitting module disposed on the first body and a second light emitting module disposed on the second body, a housing; a coupling member coupled to the housing; a reflector disposed between the housing and the coupling member; a light source unit connected to the coupling member; and an optical member connected to the light source unit, wherein the optical member transmits a part of light emitted from the light source unit and reflects the other part of the light to the reflector, Characterized in that: the light source unit comprises a body unit (310a, 310b) and a light emitting module (320a, 320b) disposed on a bottom surface of the body unit (310a, 310b), wherein the body unit (310a, 310b) comprises a first body and a second body disposed on one side of the first body, wherein the light emitting module (320a, 320b) comprises a first light emitting module disposed on the first body and a second light emitting module disposed on the second body, wherein the optical member transmits a part of light emitted from the light source unit and reflects the other part of the light to the reflector, Characterized in that: the light source unit comprises a body unit (310a, 310b) and a light emitting module (320a, 320b) disposed on a bottom surface of the body unit (310a, 310b), wherein the body unit (310a, 310b) comprises a first body and a second body disposed on one side of the first body, wherein the light emitting module (320a, 320b) comprises a first light emitting module disposed on the first body and a second light emitting module disposed on the second body, the light source unit comprises a body unit (310a, 310b) and a light emitting module (320a, 320b) disposed on a bottom surface of the body unit (310a, 310b), wherein the body unit (310a, 310b) comprises a first body and a second body disposed on one side of the first body, wherein the light emitting module (320a, 320b) comprises a first light emitting module disposed on the first body and a second light emitting module disposed on the second body,
A method of laser safety verification for a depth map sensor, comprising: illuminating via an image scene, during a first illumination phase, using a laser illumination system, a first cluster of one or more first pixels of a pixel array of the depth map sensor, while not illuminating a second cluster, different from the first cluster, of one or more second pixels of the pixel array of the depth map sensor; detecting, during the first illumination phase, a level of illumination of the second cluster; and comparing the detected level of illumination of the second cluster, during the first illumination phase, with a first threshold value to verify the safety of the laser illumination system. illuminating via an image scene, during a first illumination phase, using a laser illumination system, a first cluster of one or more first pixels of a pixel array of the depth map sensor, while not illuminating a second cluster, different from the first cluster, of one or more second pixels of the pixel array of the depth map sensor; detecting, during the first illumination phase, a level of illumination of the second cluster; and comparing the detected level of illumination of the second cluster, during the first illumination phase, with a first threshold value to verify the safety of the laser illumination system.
A system to mitigate thermal lag of start-up operations of a gas turbine, the system comprising: a housing which is disposed upstream from and which is fluidly coupled to a compressor of the gas turbine and which comprises an inlet adapted to receive inlet air from the atmosphere; and an inlet bleed heat system including piping, valves and manifolds and being coupled to an aft portion of the compressor and to the inlet of the housing which, when activated, receives a first air supply from the compressor and delivers the first air supply to the housing; characterized in that the system further comprises: an interstage bleed system, coupled to the inlet bleed heat system, which removes a second air supply from an intermediate portion of the compressor; wherein the interstage bleed system is configured to deliver the second air supply to the inlet bleed heat system prior to the activation of the inlet bleed heat system for warming the inlet bleed heat system. a housing which is disposed upstream from and which is fluidly coupled to a compressor of the gas turbine and which comprises an inlet adapted to receive inlet air from the atmosphere; and an inlet bleed heat system including piping, valves and manifolds and being coupled to an aft portion of the compressor and to the inlet of the housing which, when activated, receives a first air supply from the compressor and delivers the first air supply to the housing; characterized in that the system further comprises: an interstage bleed system, coupled to the inlet bleed heat system, which removes a second air supply from an intermediate portion of the compressor; wherein the interstage bleed system is configured to deliver the second air supply to the inlet bleed heat system prior to the activation of the inlet bleed heat system for warming the inlet bleed heat system. an interstage bleed system, coupled to the inlet bleed heat system, which removes a second air supply from an intermediate portion of the compressor; wherein the interstage bleed system is configured to deliver the second air supply to the inlet bleed heat system prior to the activation of the inlet bleed heat system for warming the inlet bleed heat system.
A method comprising: monitoring, in a peer-to-peer computer network, a plurality of agents (95A-95H) and a plurality of files by tracking an availability of each agent and tracking a status of each file respectively; evaluating each agent, based at least partially on respective past performance and qualitative factors; encoding each file into portions; matching the portions into agents (95A-95H) to yield a specified distribution of loads among the agents (95A-95H) based at least partially on their respective evaluation, each agent storing portions of each file; calculating, an availability function for each one of the plurality of agents (95A-95H), wherein the availability function comprises a summation over time of a plurality of time-dependent availability weighing functions; calculating, for each one of the plurality of files, a function of a cost for distributing each one of the plurality of files, wherein the cost function comprises a summation over each of the availability functions for each one of the plurality of agents (95A-95H); and wherein at least one of the monitoring, the evaluating, the encoding and the matching is executed by at least one processor. monitoring, in a peer-to-peer computer network, a plurality of agents (95A-95H) and a plurality of files by tracking an availability of each agent and tracking a status of each file respectively; evaluating each agent, based at least partially on respective past performance and qualitative factors; encoding each file into portions; matching the portions into agents (95A-95H) to yield a specified distribution of loads among the agents (95A-95H) based at least partially on their respective evaluation, each agent storing portions of each file; calculating, an availability function for each one of the plurality of agents (95A-95H), wherein the availability function comprises a summation over time of a plurality of time-dependent availability weighing functions; calculating, for each one of the plurality of files, a function of a cost for distributing each one of the plurality of files, wherein the cost function comprises a summation over each of the availability functions for each one of the plurality of agents (95A-95H); and
A seal assembly for use in a surgical access device, comprising: one or more seals including a distal-most seal, the distal-most seal being selectively movable between an open position when an instrument is disposed therethrough and a sealed closed position when no instrument is disposed therethrough; and a fluid remover positioned adjacent to and distal of the distal-most seal and configured to remove fluid from a surgical instrument passed through the distal-most seal for preventing fluid from being transferred by the distal-most seal back onto the instrument during re-disposition through the distal-most seal. one or more seals including a distal-most seal, the distal-most seal being selectively movable between an open position when an instrument is disposed therethrough and a sealed closed position when no instrument is disposed therethrough; and a fluid remover positioned adjacent to and distal of the distal-most seal and configured to remove fluid from a surgical instrument passed through the distal-most seal for preventing fluid from being transferred by the distal-most seal back onto the instrument during re-disposition through the distal-most seal.
A composition for forming a cathode active layer of a lithium-sulfur secondary battery comprising an acrylic binder, a cathode active material and a conductive material; wherein the acrylic binder comprises polymerized units of a polymerizable monomer having a polar functional group capable of interacting with the cathode active material, wherein the cathode active material has a compound comprising a sulfur element, and wherein the polar functional group is an alkylene oxide group. wherein the acrylic binder comprises polymerized units of a polymerizable monomer having a polar functional group capable of interacting with the cathode active material, wherein the cathode active material has a compound comprising a sulfur element, and wherein the polar functional group is an alkylene oxide group.
A device for characterizing a gas, said device comprising: a first MOS sensor (Metal Oxide Sensor) at a proximal extremity of a conduit, situated so as to detect at least a first molecule in said conduit; a second MOS sensor at a distal extremity of said conduit, situated so as to detect at least a second molecule in said conduit; a Gas Chromatograph Column defining said conduit, containing one or more regions of a first adsorbent material distributed along its length, at least one said region of said first adsorbent material being situated between said first MOS sensor and said second MOS sensor; injection means for introduction of said gas at an inlet at said proximal end of said conduit, wherein said conduit, said first MOS sensor and said second MOS sensor are so disposed that a gas sample being introduced at said inlet proceeds through said first MOS sensor, said conduit and said second MOS sensor in sequence; and processing means configured to record the output of said first MOS sensor and said second MOS sensor as said gas diffuses along said conduit to compile a fingerprint of said gas, and to obtain an identification of said gas based on a comparison of said fingerprint to a library of reference fingerprints corresponding to known gases, where said gas is identified as the known gas whose reference fingerprint matches said reference fingerprint most closely. a first MOS sensor (Metal Oxide Sensor) at a proximal extremity of a conduit, situated so as to detect at least a first molecule in said conduit; a second MOS sensor at a distal extremity of said conduit, situated so as to detect at least a second molecule in said conduit; a Gas Chromatograph Column defining said conduit, containing one or more regions of a first adsorbent material distributed along its length, at least one said region of said first adsorbent material being situated between said first MOS sensor and said second MOS sensor; injection means for introduction of said gas at an inlet at said proximal end of said conduit, wherein said conduit, said first MOS sensor and said second MOS sensor are so disposed that a gas sample being introduced at said inlet proceeds through said first MOS sensor, said conduit and said second MOS sensor in sequence; and processing means configured to record the output of said first MOS sensor and said second MOS sensor as said gas diffuses along said conduit to compile a fingerprint of said gas, and to obtain an identification of said gas based on a comparison of said fingerprint to a library of reference fingerprints corresponding to known gases, where said gas is identified as the known gas whose reference fingerprint matches said reference fingerprint most closely.
Device for guiding cables for industrial or domestic installation systems including: - a guidance means including a passage intended to receive one or several cables of the system, - a support arm intended to be attached to the system, - a first male engagement means and a first female engagement means, said first means able to be mutually oriented, the device for guiding cables being characterised in that - the first male engagement means and the first female engagement means are able to be mutually oriented in at least three different positions, about a first axis associated with the device for guiding cables; - the device for guiding cables includes a second male engagement means (320, 330) and a second female engagement means (220, 230), said second means able to be mutually oriented, in at least three different positions, about a second axis associated with the device for guiding cables. - a guidance means including a passage intended to receive one or several cables of the system, - a support arm intended to be attached to the system, - a first male engagement means and a first female engagement means, said first means able to be mutually oriented, the device for guiding cables being characterised in that - the first male engagement means and the first female engagement means are able to be mutually oriented in at least three different positions, about a first axis associated with the device for guiding cables; - the device for guiding cables includes a second male engagement means (320, 330) and a second female engagement means (220, 230), said second means able to be mutually oriented, in at least three different positions, about a second axis associated with the device for guiding cables.
A process for the production of a molding, comprising providing a zeolitic material comprising; providing a mixture comprising one or more sources for YO 2 and one or more alkenyltrialkylammonium cation R 1 R 2 R 3 R 4 N + -containing compounds as structure directing agent; crystallizing the mixture obtained in step to obtain a zeolitic material; wherein Y is a tetravalent element, wherein R 1, R 2, R 3 independently from one another stand for alkyl; and R 4 stands for alkenyl; mixing the zeolitic material provided in step with one or more binders; kneading of the mixture obtained in step; molding of the kneaded mixture obtained in step to obtain one or more moldings; drying of the one or more moldings obtained in step; and calcining of the dried molding obtained in step; wherein the zeolitic material provided in step displays a water adsorption ranging from 2 to 9 wt.-% when exposed to a relative humidity of 85%, wherein water adsorption is measured according to the procedure "water adsorption/desorption isotherms" in the experimental section of the description; wherein the zeolitic material provided in comprises TS-1. providing a zeolitic material comprising; providing a mixture comprising one or more sources for YO 2 and one or more alkenyltrialkylammonium cation R 1 R 2 R 3 R 4 N + -containing compounds as structure directing agent; crystallizing the mixture obtained in step to obtain a zeolitic material; wherein Y is a tetravalent element, wherein R 1, R 2, R 3 independently from one another stand for alkyl; and R 4 stands for alkenyl; providing a mixture comprising one or more sources for YO 2 and one or more alkenyltrialkylammonium cation R 1 R 2 R 3 R 4 N + -containing compounds as structure directing agent; crystallizing the mixture obtained in step to obtain a zeolitic material; wherein Y is a tetravalent element, wherein R 1, R 2, R 3 independently from one another stand for alkyl; and R 4 stands for alkenyl; wherein Y is a tetravalent element, wherein R 1, R 2, R 3 independently from one another stand for alkyl; and R 4 stands for alkenyl; mixing the zeolitic material provided in step with one or more binders; kneading of the mixture obtained in step; molding of the kneaded mixture obtained in step to obtain one or more moldings; drying of the one or more moldings obtained in step; and calcining of the dried molding obtained in step;
A generator arrangement, comprising: a generator located within a flow passage wherein the flow passage has an inlet and an outlet, and the generator includes at least one contra-rotating blade arrangement which is configured to be rotated about a principle axis of the generator by a flow of liquid in the flow passage, and wherein at least one of the contra-rotating blades has an adjustable pitch; an array of sensors (222, 224, 226, 228) located downstream of the blade arrangement for detecting the outlet flow conditions; a controller for determining the outlet flow conditions on the basis of conditions sensed by the sensor array (222, 224, 226, 228); and, a pitch control system for adjusting the pitch of the at least one blade based on the determined outlet flow conditions so as to affect the flow conditions at the outlet of the flow passage. a generator located within a flow passage wherein the flow passage has an inlet and an outlet, and the generator includes at least one contra-rotating blade arrangement which is configured to be rotated about a principle axis of the generator by a flow of liquid in the flow passage, and wherein at least one of the contra-rotating blades has an adjustable pitch; an array of sensors (222, 224, 226, 228) located downstream of the blade arrangement for detecting the outlet flow conditions; a controller for determining the outlet flow conditions on the basis of conditions sensed by the sensor array (222, 224, 226, 228); and, a pitch control system for adjusting the pitch of the at least one blade based on the determined outlet flow conditions so as to affect the flow conditions at the outlet of the flow passage.
A method for controlling a multi-screen system, wherein the multi-screen system comprises a plurality of display screens (1,2,3) and a driving mechanism configured to drive the plurality of display screens to move in space, the method comprising: acquiring a control instruction for the multi-screen system; and controlling the plurality of display screens to move according to the control instruction; wherein the controlling the plurality of display screens to move according to the control instruction comprises: generating a movement control instruction for each display screen, and executing the movement control instruction for each display screen, characterized in that there are a plurality of driving mechanisms corresponding one-to-one to the display screens, and each of the driving mechanisms comprises a rotating disc, a universal ball joint, a telescopic tubular column, and a direction control apparatus; wherein one end of the rotating disc is connected to the display screen, and another end of the rotating disc is connected to one end of the universal ball joint; one end of the telescopic tubular column is connected to another end of the universal ball joint, and another end of the telescopic tubular column is connected to the direction control apparatus; and the direction control apparatus is configured to control the display screen to move in space according to a received movement control instruction. acquiring a control instruction for the multi-screen system; and controlling the plurality of display screens to move according to the control instruction; generating a movement control instruction for each display screen, and executing the movement control instruction for each display screen, characterized in that there are a plurality of driving mechanisms corresponding one-to-one to the display screens, and each of the driving mechanisms comprises a rotating disc, a universal ball joint, a telescopic tubular column, and a direction control apparatus; wherein one end of the rotating disc is connected to the display screen, and another end of the rotating disc is connected to one end of the universal ball joint; one end of the telescopic tubular column is connected to another end of the universal ball joint, and another end of the telescopic tubular column is connected to the direction control apparatus; and the direction control apparatus is configured to control the display screen to move in space according to a received movement control instruction.
A nuclear reactor, comprising: - a vessel having a central axis; - a core positioned in the vessel, the core comprising a plurality of nuclear fuel assemblies, a primary water layer separating the core from the vessel radially from the central axis and surrounding the core; - a protection and control system of the nuclear reactor configured to provide the protection and control of the reactor in a predetermined power range, typically a residual power upon stopping and a nominal power, said protection and control system comprising a device for continuous measurement of the neutron flux emitted by the core; characterized in that the measuring device comprises at least one neutron detector continuously measuring said neutron flux, the neutron detector(s) being positioned in the primary water layer radially between the core and the vessel, the neutron detector(s) being placed in one or several radial position(s) chosen to obtain, owing to the attenuation of the water layer, one or several counting rates suitable for the instrumentation and control system of the nuclear reactor for the entire predetermined power range. - a vessel having a central axis; - a core positioned in the vessel, the core comprising a plurality of nuclear fuel assemblies, a primary water layer separating the core from the vessel radially from the central axis and surrounding the core; - a protection and control system of the nuclear reactor configured to provide the protection and control of the reactor in a predetermined power range, typically a residual power upon stopping and a nominal power, said protection and control system comprising a device for continuous measurement of the neutron flux emitted by the core;