mhurhangee/ep-ind-claims huggingface dataset:
A mobile computing device, comprising: a radio module having a communications failure event detector operative to detect a communications failure event; a motion detector operative to detect motion; and a processor coupled to the radio module and the motion detector, the processor operative to execute a scan control module to determine responsive to the detection of a communications failure event, whether the mobile computing device is moving or stationary, and control scanning operations by the radio module in accordance with the determination, wherein the scan control module is operative to determine the mobile computing device is stationary for a first time period, and reduce a scan rate used by the radio module for the scanning operations; and the scan control module is further operative to determine the mobile computing device is stationary for a second time period, subsequent to the first time period, and suspend scanning operations by the radio module. a radio module having a communications failure event detector operative to detect a communications failure event; a motion detector operative to detect motion; and a processor coupled to the radio module and the motion detector, the processor operative to execute a scan control module to determine responsive to the detection of a communications failure event, whether the mobile computing device is moving or stationary, and control scanning operations by the radio module in accordance with the determination,
An article of manufacture, comprising: a bicycle rim having a leading edge where the bicycle rim is configured to engage a tire, a spoke face from where one or more spokes extend from the bicycle rim, and a sidewall (112, 119) extending from the spoke face to the leading edge, characterized in that the spoke face and the sidewall (112, 119) have a rate of change of curvature that is gradual and continuous, and in that the spoke face and the sidewall from the spoke face to the leading edge have a maximum rate of change of curvature less than 0.045 mm -2, and a maximum rate of change in the rate of change of curvature less than 0.0276 mm -3 and wherein the radius of curvature is ever reducing from the side wall to the centre of the spoke face. a leading edge where the bicycle rim is configured to engage a tire, a spoke face from where one or more spokes extend from the bicycle rim, and a sidewall (112, 119) extending from the spoke face to the leading edge, characterized in that the spoke face and the sidewall (112, 119) have a rate of change of curvature that is gradual and continuous, and in that the spoke face and the sidewall from the spoke face to the leading edge have a maximum rate of change of curvature less than 0.045 mm -2, and a maximum rate of change in the rate of change of curvature less than 0.0276 mm -3 and wherein the radius of curvature is ever reducing from the side wall to the centre of the spoke face.
A polymer electrolyte membrane comprising: a hybrid composite porous support, the hybrid composite porous support comprising a fluorine-based support including a plurality of pores due to a microstructure of polymer fibrils, and a nanoweb located on one or both surfaces of the fluorine-based support and including nanofibers which are integrated into a non-woven fabric such that the nanoweb includes a plurality of pores; and an ion conductor filling pores of the hybrid composite porous support. a hybrid composite porous support, the hybrid composite porous support comprising a fluorine-based support including a plurality of pores due to a microstructure of polymer fibrils, and a nanoweb located on one or both surfaces of the fluorine-based support and including nanofibers which are integrated into a non-woven fabric such that the nanoweb includes a plurality of pores; and an ion conductor filling pores of the hybrid composite porous support.
A medical device for monitoring depth of relaxation of a patient, comprising: a stimulator operable to apply train-of-four stimulation to a nerve of the patient at first and second measurement times; an electromyography sensor operable to detect a first muscle twitch, a second muscle twitch, a third muscle twitch and a fourth muscle twitch in response to the TOF stimulation at the first and second measurement times; a controller configured to create a predicted neuromuscular blocking trend curve (706, 804) based on the detected muscle twitches at the first and second measurement times, wherein the predicted neuromuscular blocking trend curve (706, 804) indicates a predicted extubation time. a stimulator operable to apply train-of-four stimulation to a nerve of the patient at first and second measurement times; an electromyography sensor operable to detect a first muscle twitch, a second muscle twitch, a third muscle twitch and a fourth muscle twitch in response to the TOF stimulation at the first and second measurement times; a controller configured to create a predicted neuromuscular blocking trend curve (706, 804) based on the detected muscle twitches at the first and second measurement times, wherein the predicted neuromuscular blocking trend curve (706, 804) indicates a predicted extubation time.
An apparatus for detecting a failure of a gladhand coupler connecting a towing component and a trailer component of a commercial or railroad vehicle, wherein the towing component is configured with a triggerable mechanism adapted to change, through the gladhand coupler, a pressure for braking the trailer component, characterized by a triggering module, configured to trigger the mechanism; and a detection module, configured to detect a reaction of the commercial or railroad vehicle after the triggering module has triggered the mechanism, to attribute the reaction to a failure of the gladhand coupler, and to issue a warning signal about the failure of the gladhand coupler. a triggering module, configured to trigger the mechanism; and a detection module, configured to detect a reaction of the commercial or railroad vehicle after the triggering module has triggered the mechanism, to attribute the reaction to a failure of the gladhand coupler, and to issue a warning signal about the failure of the gladhand coupler.
Covering slab for an infrastructure such as a roadway in the form of a road or motorway as well as a wall or a roof, said infrastructure being functionalized by the addition of a function of the electrical energy generator type and/or of the electrical energy receiver type, the covering slab being formed by a monobloc assembly comprising: - an assembly for the electrical functionalization of said slab, comprising a first layer, called an outer layer; - an electronics block connected to said electrical functionalization assembly and comprising at least one bidirectional static converter; characterized in that said monobloc assembly also comprises: - a contactless energy transmission block comprising an inductive coupler provided with two terminals connected to the bidirectional static converter of said electronics block and having a coupling surface located opposite said outer layer. - an assembly for the electrical functionalization of said slab, comprising a first layer, called an outer layer; - an electronics block connected to said electrical functionalization assembly and comprising at least one bidirectional static converter; - a contactless energy transmission block comprising an inductive coupler provided with two terminals connected to the bidirectional static converter of said electronics block and having a coupling surface located opposite said outer layer.
A method of analyzing a noise signal, comprising: receiving a noise signal sensed by a knock sensor disposed in a reciprocating device, wherein the reciprocating device is a combustion engine; preconditioning the noise signal to derive a preconditioned noise signal; characterized by applying an Attack-Decay-Sustain-Release (ADSR) envelope to the preconditioned noise signal; extracting tonal information from the preconditioned noise signal; and creating a fingerprint of the noise signal based on a combination of the ADSR envelope and the tonal information. receiving a noise signal sensed by a knock sensor disposed in a reciprocating device, wherein the reciprocating device is a combustion engine; preconditioning the noise signal to derive a preconditioned noise signal; characterized by applying an Attack-Decay-Sustain-Release (ADSR) envelope to the preconditioned noise signal; extracting tonal information from the preconditioned noise signal; and creating a fingerprint of the noise signal based on a combination of the ADSR envelope and the tonal information.
An oral care device comprising: a field generator adapted to generate an electric field in a mouth of a user, responsive to an input control signal; a controller adapted to generate the input control signal, to control generation of the electric field, wherein the electric field is for imparting a force upon particles forming a biofilm to be removed by the oral care device or upon cleaning agent particles, characterized in that the controller is adapted to generate a cyclic control signal for generation of the electric field at a first RF frequency and at a second RF frequency, wherein the first RF frequency is below a threshold frequency and the second RF frequency is above the threshold frequency, thereby to generate dielectrophoretic forces on the particles in opposite directions, wherein the cyclic control signal is for: generating a frequency switch between said first RF frequency and said second RF frequency; or generating a frequency sweep between said first RF frequency and said second RF frequency. a field generator adapted to generate an electric field in a mouth of a user, responsive to an input control signal; a controller adapted to generate the input control signal, to control generation of the electric field, wherein the electric field is for imparting a force upon particles forming a biofilm to be removed by the oral care device or upon cleaning agent particles, characterized in that the controller is adapted to generate a cyclic control signal for generation of the electric field at a first RF frequency and at a second RF frequency, wherein the first RF frequency is below a threshold frequency and the second RF frequency is above the threshold frequency, thereby to generate dielectrophoretic forces on the particles in opposite directions, wherein the cyclic control signal is for: generating a frequency switch between said first RF frequency and said second RF frequency; or generating a frequency sweep between said first RF frequency and said second RF frequency. generating a frequency switch between said first RF frequency and said second RF frequency; or generating a frequency sweep between said first RF frequency and said second RF frequency.
A machining unit comprising at least one machining module, said machining module comprising a protective compartment which delimits an enclosure and has a front door, which can go from a closed position to an open position defining an opening, a machining assembly provided with a tool-holder and a part-holder, a movable carriage which receives said machining assembly and can slide on guide means, between a first position in which said machining assembly is accommodated in said enclosure, and the front door can be closed for the purpose of carrying out machining of a part by said machining assembly, and a second position in which the carriage projects from the protective compartment via said opening, and said machining assembly is situated outside said enclosure, which permits access to the machining assembly from the exterior of the protective compartment.
A wholly aromatic liquid crystalline polyester resin compound comprising: a wholly aromatic liquid crystalline polyester resin having a melting point of 300 to 450 °C; and an electrically conductive filler, wherein the electrically conductive filler comprises at least one selected from the group consisting of carbon black, carbon fiber, metal powder, metal-coated inorganic powder, and carbon nanotubes, wherein an amount of the electrically conductive filler is in a range of about 5 to about 30 parts by weight based on 100 parts by weight of the wholly aromatic liquid crystalline polyester resin, wherein the wholly aromatic liquid crystalline polyester resin compound has a surface resistance of 10 7 to 4x10 11 Ω/sq. a wholly aromatic liquid crystalline polyester resin having a melting point of 300 to 450 °C; and an electrically conductive filler, wherein the electrically conductive filler comprises at least one selected from the group consisting of carbon black, carbon fiber, metal powder, metal-coated inorganic powder, and carbon nanotubes, wherein an amount of the electrically conductive filler is in a range of about 5 to about 30 parts by weight based on 100 parts by weight of the wholly aromatic liquid crystalline polyester resin, wherein the wholly aromatic liquid crystalline polyester resin compound has a surface resistance of 10 7 to 4x10 11 Ω/sq.
Plastic closure for a tubular outlet connector of a container, having a closure cap, which is detachably fastened on the connector in particular via a thread, wherein the closure cap is permanently connected to the connector via a retaining strip, wherein, when the connector axis is vertical, the retaining strip is fastened on the connector by way of a first lower end and, from there, runs upwards to the side of the closure cap by way of a first strip region, and, when the closure cap is closed, the retaining strip has a bent-over section in the upper region so as to run downwards again, by way of a second strip region, to its second lower end, which is fixed to the closure cap, characterized - in that, between its ends, the retaining strip is connected to the closure cap via at least one tearable crosspiece, and/or - in that the two strip regions (4a, 4b) are connected to one another by at least one tearable crosspiece, and/or - in that the retaining strip is connected to the closure cap or a cap grip surface via a tearable crosspiece, and - wherein the two strip regions (4a, 4b) run parallel to one another over a large part of their lengths and run parallel to the connector axis over part of their lengths, and - wherein the closure cap has laterally projecting wing-form grip surfaces (2a, 2b) at its upper end, and - wherein, in the closed state, the retaining strip fits against the underside of the wing-form grip surface (2a, 2b) by way of its upper, bent-over region, and - wherein, on its underside, the grip surface has a recess, into which the bent-over section protrudes. - in that, between its ends, the retaining strip is connected to the closure cap via at least one tearable crosspiece, and/or - in that the two strip regions (4a, 4b) are connected to one another by at least one tearable crosspiece, and/or - in that the retaining strip is connected to the closure cap or a cap grip surface via a tearable crosspiece, and - wherein the two strip regions (4a, 4b) run parallel to one another over a large part of their lengths and run parallel to the connector axis over part of their lengths, and - wherein the closure cap has laterally projecting wing-form grip surfaces (2a, 2b) at its upper end, and - wherein, in the closed state, the retaining strip fits against the underside of the wing-form grip surface (2a, 2b) by way of its upper, bent-over region, and - wherein, on its underside, the grip surface has a recess, into which the bent-over section protrudes.
A process for separation of hydrocarbons from hydrocarbon-containing produced water in a pressure tank, characterized by a first stage where the hydrocarbon-containing produced water is supplied and mixed with a gas-containing component, whereupon the gas- and hydrocarbon-containing produced water mixture is fed to an inlet tube (22, 27) in the centre of a tank, whereupon said mixture via a branch means in the top portion of the inlet tube (22, 27) is tangentially distributed along the tank wall via more than one tube with at least one outlet nozzle and at least one baffle plate (8.1), mounted under each outlet nozzle, whereupon gas with adherent oil droplets will rise to at least one submerged outlet (9, 35, 36) in the top of the tank and being discharged; and cleaned water is conveyed to an outlet in the bottom of the tank.
A method for a communication system communicating via a transmission medium, wherein the transmission medium is an electric network formed by multiple conductors and a reference plane, characterized in that method comprises: identifying N modes that can be applied on the transmission medium, wherein a mode is an injection mode selected from voltage injection and current injection on the transmission medium selected from the multiple conductors, the reference plane, or a combination of both, and wherein the N modes are orthogonal to each other; selecting up to N modes to be used in the communication system from among the N modes identified on the transmission medium; injecting communication signals in the selected modes; and transmitting multiple versions of the communication signals in the modes used, wherein the multiple versions of the communication signals are combined at reception to improve reliability of communication, the method characterized in that the method further comprises simultaneously injecting up to N modes on the same bandwidth or frequency range, wherein the N modes include differential modes, pseudo-differential modes, and a common mode. identifying N modes that can be applied on the transmission medium, wherein a mode is an injection mode selected from voltage injection and current injection on the transmission medium selected from the multiple conductors, the reference plane, or a combination of both, and wherein the N modes are orthogonal to each other; selecting up to N modes to be used in the communication system from among the N modes identified on the transmission medium; injecting communication signals in the selected modes; and transmitting multiple versions of the communication signals in the modes used, wherein the multiple versions of the communication signals are combined at reception to improve reliability of communication, the method characterized in that the method further comprises simultaneously injecting up to N modes on the same bandwidth or frequency range, wherein the N modes include differential modes, pseudo-differential modes, and a common mode.
A pneumatic system for a patient support apparatus, comprising: a pneumatic enclosure having an inlet and an outlet; a blower in fluid communication with the inlet via a first flexible conduit; a microclimate management layer in fluid communication with the outlet via a second flexible conduit; a pressure sensor configured to detect pressure (P C) within the pneumatic enclosure; and a controller configured to adjust a speed of the blower to maintain a predetermined pressure within the pneumatic enclosure, wherein the controller is configured to detect at least one of an intake blockage condition and an exhaust blockage condition when the speed of the blower is outside a predetermined speed range, and wherein the controller is configured to monitor a frequency of at least one of the detected intake blockage conditions and the detected exhaust blockage conditions. a pneumatic enclosure having an inlet and an outlet; a blower in fluid communication with the inlet via a first flexible conduit; a microclimate management layer in fluid communication with the outlet via a second flexible conduit; a pressure sensor configured to detect pressure (P C) within the pneumatic enclosure; and a controller configured to adjust a speed of the blower to maintain a predetermined pressure within the pneumatic enclosure, wherein the controller is configured to detect at least one of an intake blockage condition and an exhaust blockage condition when the speed of the blower is outside a predetermined speed range,
Electrical connecting terminal between two conducting elements (4.1-4.3, 12.1-12.3), said terminal comprising: - at least one clamping screw comprising a head and a thread, - a connector for each screw, each connector comprising a first stage delimiting an internal thread for receiving the clamping screw, and a second stage comprising a hole for the passage of the screw, aligned with the internal thread, the first stage being movable relative to the second stage parallel to an axis of the screw, - a receiver for receiving a first conducting element (4.1-4.3) between the two stages (10a, 10b) of the connector, and characterised in that: - the terminal comprises a stirrup, mounted around each screw, between the head and the thread of the screw, - the terminal comprises a receiver for receiving a second conducting element (12.1-12.3) between the stirrup and the connector, - the second stage is arranged between the first stage and the stirrup, - the two stages (10a, 10b) of the connector are in one piece, - the connector is C-shaped, and - the first stage and the second stage of the connector form two parallel branches of the C. - at least one clamping screw comprising a head and a thread, - a connector for each screw, each connector comprising a first stage delimiting an internal thread for receiving the clamping screw, and a second stage comprising a hole for the passage of the screw, aligned with the internal thread, the first stage being movable relative to the second stage parallel to an axis of the screw, - a receiver for receiving a first conducting element (4.1-4.3) between the two stages (10a, 10b) of the connector, and - the terminal comprises a stirrup, mounted around each screw, between the head and the thread of the screw, - the terminal comprises a receiver for receiving a second conducting element (12.1-12.3) between the stirrup and the connector, - the second stage is arranged between the first stage and the stirrup, - the two stages (10a, 10b) of the connector are in one piece, - the connector is C-shaped, and - the first stage and the second stage of the connector form two parallel branches of the C.
Aircraft (100, 300, 400) having: - an engine having a high-pressure compressor with multiple compression stages and a combustion chamber, - a fuel tank containing dihydrogen in liquid form, - devices to be heated, - a first air intake intended to draw, from the high-pressure compressor, air at a low pressure or at an intermediate pressure, and a second air intake intended to draw, from the high-pressure compressor, air at a high pressure, - a first heat exchanger, - a first pipe which passes through the first heat exchanger and feeds the devices to be heated downstream of the first heat exchanger, wherein, upstream of the first heat exchanger, the first pipe is divided into two sub-pipes, one of which is fluidically connected to the first air intake and the other of which is fluidically connected to the second air intake, and - a fuel pipe that is fluidically connected between the fuel tank and the combustion chamber of the engine and passes through the first heat exchanger. - an engine having a high-pressure compressor with multiple compression stages and a combustion chamber, - a fuel tank containing dihydrogen in liquid form, - devices to be heated, - a first air intake intended to draw, from the high-pressure compressor, air at a low pressure or at an intermediate pressure, and a second air intake intended to draw, from the high-pressure compressor, air at a high pressure, - a first heat exchanger, - a first pipe which passes through the first heat exchanger and feeds the devices to be heated downstream of the first heat exchanger, wherein, upstream of the first heat exchanger, the first pipe is divided into two sub-pipes, one of which is fluidically connected to the first air intake and the other of which is fluidically connected to the second air intake, and - a fuel pipe that is fluidically connected between the fuel tank and the combustion chamber of the engine and passes through the first heat exchanger.