mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a High-Definition Multimedia Interface, HDMI, port in a device connected to an HDMI connector, the method comprising: generating a first voltage at a first pin of the HDMI port; detecting a second voltage at the first pin of the HDMI port; detecting a third voltage at a second pin of the HDMI port; comparing the second voltage to the first voltage; comparing the second voltage to the third voltage; determining based on the comparison of the second voltage to the third voltage that the HDMI port of the device is connected to an HDMI source; causing the HDMI port to act as an HDMI sink based on the determination that the HDMI port is connected to the HDMI source; determining based on the comparison of the second voltage to the first voltage that the HDMI port of the device is connected to an HDMI sink; and causing the HDMI port to act as an HDMI source based on the determination that the HDMI port is connected to the HDMI sink. generating a first voltage at a first pin of the HDMI port; detecting a second voltage at the first pin of the HDMI port; detecting a third voltage at a second pin of the HDMI port; comparing the second voltage to the first voltage; comparing the second voltage to the third voltage; determining based on the comparison of the second voltage to the third voltage that the HDMI port of the device is connected to an HDMI source; causing the HDMI port to act as an HDMI sink based on the determination that the HDMI port is connected to the HDMI source; determining based on the comparison of the second voltage to the first voltage that the HDMI port of the device is connected to an HDMI sink; and causing the HDMI port to act as an HDMI source based on the determination that the HDMI port is connected to the HDMI sink.
A thrust reverser for a nacelle of an aircraft bypass turbojet engine, this thrust reverser having a generally annular shape around an axis and comprising: - a fixed upstream part comprising an annular frame, - a downstream annular support, - deflection grids, the upstream ends of which are secured to said frame and the downstream ends of which are secured to said support, - cowls that can be moved in translation from an upstream position in which they cover the grids to a thrust reversal downstream position in which the grids are uncovered, - elements for deflecting a secondary flux of the turbojet engine through the grids when the cowls are in their downstream position, and - actuators of elongated shape, the upstream ends of which are secured to the fixed part and the downstream ends of which are secured to said cowls, characterised in that said frame comprises: - a first frustoconical wall widening in the downstream direction and comprising an upstream peripheral edge configured to be secured to a casing of the turbojet engine, and a downstream peripheral edge extending in the continuation of the wall and being used to secured the upstream ends of the grids, and - a second annular wall extending radially outwards from an external frustoconical face of said first wall, said first and second walls (52, 54) being integrally formed and said second wall comprising axial orifices through which said actuators pass. - a fixed upstream part comprising an annular frame, - a downstream annular support, - deflection grids, the upstream ends of which are secured to said frame and the downstream ends of which are secured to said support, - cowls that can be moved in translation from an upstream position in which they cover the grids to a thrust reversal downstream position in which the grids are uncovered, - elements for deflecting a secondary flux of the turbojet engine through the grids when the cowls are in their downstream position, and - actuators of elongated shape, the upstream ends of which are secured to the fixed part and the downstream ends of which are secured to said cowls, - a first frustoconical wall widening in the downstream direction and comprising an upstream peripheral edge configured to be secured to a casing of the turbojet engine, and a downstream peripheral edge extending in the continuation of the wall and being used to secured the upstream ends of the grids, and - a second annular wall extending radially outwards from an external frustoconical face of said first wall,
A valve repair device for repairing a native valve of a patient, the valve repair device comprising: a spacer; a pair of paddles coupled to the spacer, wherein the pair of paddles are movable between an open position and a closed position, wherein the pair of paddles are configured to attach the valve repair device to the native valve of the patient; at least one leak control extension extending from the spacer, wherein the leak control extension is configured to block retrograde blood flow along sides of the spacer, and wherein the at least one leak control extension comprises a barrier element; wherein the barrier element is attached to the paddles to create a barrier that extends from a first paddle of the pair of paddles to a second paddle of the pair of paddles, wherein the barrier is configured to prevent regurgitation of blood during the systolic phase. a spacer; a pair of paddles coupled to the spacer, wherein the pair of paddles are movable between an open position and a closed position, wherein the pair of paddles are configured to attach the valve repair device to the native valve of the patient; at least one leak control extension extending from the spacer, wherein the leak control extension is configured to block retrograde blood flow along sides of the spacer, and wherein the at least one leak control extension comprises a barrier element; wherein the barrier element is attached to the paddles to create a barrier that extends from a first paddle of the pair of paddles to a second paddle of the pair of paddles, wherein the barrier is configured to prevent regurgitation of blood during the systolic phase.
A method, comprising: first authenticating and/or authorizing at least one of: a wireless computing device (128a-128c) that has connected to wireless communication network on-board a vehicle, or a user of the wireless computing device (128a-128c); subsequent to the first authenticating and/or authorizing, and while the vehicle is in-transit and in a dis-connected state with respect to data delivery between the in-transit vehicle and a ground-based network, second authenticating and/or authorizing a client application executing on the wireless computing device (128a-128c) to access a local service that is provided by a node of the on-board wireless communication network, the second authenticating and/or authorizing based on local access control data stored in one or more data storage devices on-board the vehicle; and upon the in-transit vehicle returning to a connected state with respect to data delivery between the in-transit vehicle and the ground-based network, synchronizing the local access control data stored on-board the in-transit vehicle with master access control data stored in the ground-based network. first authenticating and/or authorizing at least one of: a wireless computing device (128a-128c) that has connected to wireless communication network on-board a vehicle, or a user of the wireless computing device (128a-128c); subsequent to the first authenticating and/or authorizing, and while the vehicle is in-transit and in a dis-connected state with respect to data delivery between the in-transit vehicle and a ground-based network, second authenticating and/or authorizing a client application executing on the wireless computing device (128a-128c) to access a local service that is provided by a node of the on-board wireless communication network, the second authenticating and/or authorizing based on local access control data stored in one or more data storage devices on-board the vehicle; and upon the in-transit vehicle returning to a connected state with respect to data delivery between the in-transit vehicle and the ground-based network, synchronizing the local access control data stored on-board the in-transit vehicle with master access control data stored in the ground-based network.
A method of restoring a stator inner shroud (34a - 34c), the method comprising: manually feeding successive portions of a filler material to a damaged region (40a - 40c) in a surface (38a - 38c) of the stator inner shroud (34a - 34c); melting the manually fed successive portions of the filler material with a laser beam; and cooling the melted successive portions of the filler material in the damaged region (40a - 40c), thereby allowing the melted successive portions to form a weld; the method characterised in that the filler material is deposited in multiple parallel overlapping bead paths and sequentially welded to fill the damaged region, wherein each pass consumes about 30% to about 50% of a previously welded pass. manually feeding successive portions of a filler material to a damaged region (40a - 40c) in a surface (38a - 38c) of the stator inner shroud (34a - 34c); melting the manually fed successive portions of the filler material with a laser beam; and cooling the melted successive portions of the filler material in the damaged region (40a - 40c), thereby allowing the melted successive portions to form a weld; the method characterised in that the filler material is deposited in multiple parallel overlapping bead paths and sequentially welded to fill the damaged region, wherein each pass consumes about 30% to about 50% of a previously welded pass.
A method for producing a polymer, excluding natural rubber, the method comprising a mastication step in which only a polymer ready for introduction into a kneading machine, excluding natural rubber, which has a temperature within the range of -20°C to 80°C at the start of kneading and a size satisfying the following formula, is kneaded for a kneading time of 5 minutes or less using a kneading machine until the temperature falls within the range of 20°C to 120°C, so that the polymer is finely milled to increase the surface area that contacts other materials: Tip clearance d of kneading machine 3 ≤ Volume V of polymer ready for introduction into kneading machine ≤ 2.0 × 10 4 cm 3
A method for forming a contact connection between a chip (18, 47) and a conductor material track (14, 45, 46), the conductor material track being formed on a non-conductive substrate (12, 52), the chip being arranged on the substrate or on another conductor material track, a silver paste or a copper paste being applied to each of a chip contact surface (25, 48, 49) of the chip and the conductor material track (14, 45, 46), and a contact conductor (30, 53, 54) being immersed into the silver paste or the copper paste on the chip contact surface (25, 48, 49) and into the silver paste or the copper paste on the conductor material track (14, 45, 46) after the silver paste or the copper paste has been applied, a solvent contained in the silver paste or the copper paste being at least partially vaporized by heating and the contact connection being formed by sintering the silver paste or the copper paste by means of laser energy.
A system for sensing a physical property of a medium inside a conduit comprising: a radio frequency identification, RFID, reader arranged to transmit electromagnetic signals in at least one radio frequency; an RFID tag receiving the least one radio frequency exchanging the at least one radio frequency to electrical energy to power the RFID tag; a sensor electrically connected to the RFID tag located adjacent the medium flowing inside the conduit, the sensor receiving the electrical energy from the RFID tag and operating the sensor to obtain measurement data of at least one physical property of the medium; the sensor transmitting the measurement data to the RFID tag, wherein the measurement data is transmitted by the RFID tag to the RFID reader using the at least one radio frequency; characterised in that it comprises: an ultra-high frequency, UHF, control circuit electrically connected to a UHF antenna tuned to receive a UHF radio frequency; and a high-frequency, HF, control circuit electrically connected to an HF antenna tuned to receive an HF radio frequency, wherein the HF antenna and the UHF antenna are arranged as a nested pair. a radio frequency identification, RFID, reader arranged to transmit electromagnetic signals in at least one radio frequency; an RFID tag receiving the least one radio frequency exchanging the at least one radio frequency to electrical energy to power the RFID tag; a sensor electrically connected to the RFID tag located adjacent the medium flowing inside the conduit, the sensor receiving the electrical energy from the RFID tag and operating the sensor to obtain measurement data of at least one physical property of the medium; the sensor transmitting the measurement data to the RFID tag, wherein the measurement data is transmitted by the RFID tag to the RFID reader using the at least one radio frequency; characterised in that it comprises: an ultra-high frequency, UHF, control circuit electrically connected to a UHF antenna tuned to receive a UHF radio frequency; and a high-frequency, HF, control circuit electrically connected to an HF antenna tuned to receive an HF radio frequency, wherein the HF antenna and the UHF antenna are arranged as a nested pair. an ultra-high frequency, UHF, control circuit electrically connected to a UHF antenna tuned to receive a UHF radio frequency; and a high-frequency, HF, control circuit electrically connected to an HF antenna tuned to receive an HF radio frequency, wherein the HF antenna and the UHF antenna are arranged as a nested pair.
A cell electrode, comprising a catalyst layer containing a non-platinum catalyst and platinum particles not being carried on the non-platinum catalyst, wherein a content of the platinum particles per unit area of the cell electrode is 0.0010 mg/cm 2 or more and 0.1200 mg/cm 2 or less, wherein the platinum particles are carried on carrier particles other than the non-platinum catalyst, and wherein the non-platinum catalyst is a carbon catalyst. wherein a content of the platinum particles per unit area of the cell electrode is 0.0010 mg/cm 2 or more and 0.1200 mg/cm 2 or less, wherein the platinum particles are carried on carrier particles other than the non-platinum catalyst, and wherein the non-platinum catalyst is a carbon catalyst.
A method for cleaning an interior of a motor vehicle, comprising the following steps: placement at least one mobile cleaning robot onto a vehicle floor in the interior of the vehicle through an open vehicle door by means of a mobile lifting device, wherein the at least one mobile cleaning robot drives from a robot holder of the mobile lifting device at a height (15, 52) of the vehicle floor through an open vehicle door into the interior, arranging the at least one mobile cleaning robot at a predetermined position on the vehicle floor in the interior of the vehicle, wherein the mobile cleaning robot drives across the vehicle floor to the predetermined position, carrying out a predetermined cleaning program at the predetermined position by means of the at least one mobile cleaning robot, wherein the cleaning comprises guiding at least one cleaning tool by means of a guide means of the mobile cleaning robot, removing the at least one mobile cleaning robot from the interior of the vehicle, wherein the at least one mobile cleaning robot drives back into the robot holder of the mobile lifting device. placement at least one mobile cleaning robot onto a vehicle floor in the interior of the vehicle through an open vehicle door by means of a mobile lifting device, wherein the at least one mobile cleaning robot drives from a robot holder of the mobile lifting device at a height (15, 52) of the vehicle floor through an open vehicle door into the interior, arranging the at least one mobile cleaning robot at a predetermined position on the vehicle floor in the interior of the vehicle, wherein the mobile cleaning robot drives across the vehicle floor to the predetermined position, carrying out a predetermined cleaning program at the predetermined position by means of the at least one mobile cleaning robot, wherein the cleaning comprises guiding at least one cleaning tool by means of a guide means of the mobile cleaning robot, removing the at least one mobile cleaning robot from the interior of the vehicle, wherein the at least one mobile cleaning robot drives back into the robot holder of the mobile lifting device.
Method for obtaining inulin which comprises: a) finely comminuting inulin-containing plant material, wherein particle sizes of the plant material of 500 μm or less are generated, which are smaller than the size of the inulin-containing plant cells, b) suspending the finely comminuted plant material in an aqueous liquid with a water content of at least 50 percent by volume (vol-%), at a temperature in a range of 5 to <60°C, wherein inulin is released from the plant material and suspended in particulate form in the liquid, c) separating off plant particles from the liquid, wherein the inulin which is suspended in particulate form remains in the liquid, d) separating off the inulin which is suspended in particulate form from the liquid. a) finely comminuting inulin-containing plant material, wherein particle sizes of the plant material of 500 μm or less are generated, which are smaller than the size of the inulin-containing plant cells, b) suspending the finely comminuted plant material in an aqueous liquid with a water content of at least 50 percent by volume (vol-%), at a temperature in a range of 5 to <60°C, wherein inulin is released from the plant material and suspended in particulate form in the liquid, c) separating off plant particles from the liquid, wherein the inulin which is suspended in particulate form remains in the liquid, d) separating off the inulin which is suspended in particulate form from the liquid.
An olefin polymer, which has a number-average molecular weight of not less than 110,000 and Mw/Mn (Mw: weight-average molecular weight, Mn: number-average molecular weight) of not more than 1.3; wherein the polymer is (i) a polyethylene which is an ethylene polymer having a comonomer content of less than 0.01 % by mol, (ii) a high-density polyethylene which is an ethylene copolymer containing as a comonomer component an olefin of 3 to 8 carbon atoms in an amount of not less than 0.01 % by mol and less than 3 % by mol, (iii) a linear low-density polyethylene which is an ethylene random copolymer containing as a comonomer component an olefin of 3 to 8 carbon atoms in an amount of not less than 3 % by mol and less than 10 % by mol, (iv) a copolymer of ethylene and propylene having an ethylene content of not less than 60 % by mol or (v) a copolymer of ethylene and at least one olefin selected from olefins of 4 to 20 carbon atoms; wherein the weight-average molecular weight, the number-average molecular weight and Mw/Mn (Mw: weight-average molecular weight, Mn: number-average molecular weight) are measured in orthodichlorobenzene solvent at 140°C by means of GPC (gel permeation chromatography) and converted to a molecular weight in terms of polystyrene by a universal method, wherein, if the polymer is a monodisperse polyethylene or a monodisperse ethylene/propylene copolymer, the molecular weight is calculated in terms of polyethylene, and when the polymer is another polymer, the molecular weight is calculated in terms of polypropylene., using the following parameters Polystyrene standard sample: K=0.000137, α=0.686 Polyethylene: K=0.000326, α=0.77 Polypropylene: K=0.0001, α=0.8. (i) a polyethylene which is an ethylene polymer having a comonomer content of less than 0.01 % by mol, (ii) a high-density polyethylene which is an ethylene copolymer containing as a comonomer component an olefin of 3 to 8 carbon atoms in an amount of not less than 0.01 % by mol and less than 3 % by mol, (iii) a linear low-density polyethylene which is an ethylene random copolymer containing as a comonomer component an olefin of 3 to 8 carbon atoms in an amount of not less than 3 % by mol and less than 10 % by mol, (iv) a copolymer of ethylene and propylene having an ethylene content of not less than 60 % by mol or (v) a copolymer of ethylene and at least one olefin selected from olefins of 4 to 20 carbon atoms;
A method for providing carousel objects to a remote digital home communication terminal, remote DHCT, via a gateway device, the method comprising: receiving, at the gateway device, a directory of carousel objects that are available; transmitting, by the gateway device to the remote DHCT, at least a portion of the directory to enable a carousel object to be selected from at least the portion of the directory by the remote DHCT; receiving at the gateway device a message from the remote DHCT requesting a selected carousel object; receiving at the gateway device the selected carousel object, wherein the selected carousel object is repeatedly broadcast to the gateway device by a server device over a communications network; storing, in a cache at the gateway device, the received selected carousel object; and responsive to the message requesting the selected carousel object, transmitting by the gateway device the cached selected carousel object to the remote DHCT, wherein the gateway device and the remote DHCT are located at a customer premises. receiving, at the gateway device, a directory of carousel objects that are available; transmitting, by the gateway device to the remote DHCT, at least a portion of the directory to enable a carousel object to be selected from at least the portion of the directory by the remote DHCT; receiving at the gateway device a message from the remote DHCT requesting a selected carousel object; receiving at the gateway device the selected carousel object, wherein the selected carousel object is repeatedly broadcast to the gateway device by a server device over a communications network; storing, in a cache at the gateway device, the received selected carousel object; and responsive to the message requesting the selected carousel object, transmitting by the gateway device the cached selected carousel object to the remote DHCT, wherein the gateway device and the remote DHCT are located at a customer premises.