mhurhangee/ep-ind-claims huggingface dataset:
A tubular quick coupling comprising a first tubular element with a hollow connector body defining an axial orifice that is to receive a second tubular element provided with a circular rib, a latch blocked axially in said first tubular element and radially actuatable to release said second tubular element from said first tubular element, and a security system that prevents said second tubular element being withdrawn, the coupling being characterized in that said security system is a flexible and breakable ring that has a perimeter portion inside said first tubular element between the inlet of said orifice of said body and said latch in order to block said second tubular element coaxially in said first tubular element in spite of actuating said latch, said ring having at least one perimeter portion in the form of a breakable loop that projects outside said body.
A device configured to compress higher order ambisonic audio data representative of a soundfield, the device comprising: a memory configured to store higher order ambisonic coefficients of the higher order ambisonic audio data, the higher order ambisonic coefficients representative of a soundfield; and one or more processors configured to: decompose the higher order ambisonic coefficients into a sound component and a corresponding spatial component, the corresponding spatial component defining shape, width, and directions of the sound component in a spherical harmonic domain; determine, based on one or more of the sound component and the corresponding spatial component, priority information indicative of a priority of the sound component relative to other sound components of the soundfield; and specify, in a data object representative of a compressed version of the higher order ambisonic audio data, the sound component and the priority information. a memory configured to store higher order ambisonic coefficients of the higher order ambisonic audio data, the higher order ambisonic coefficients representative of a soundfield; and one or more processors configured to: decompose the higher order ambisonic coefficients into a sound component and a corresponding spatial component, the corresponding spatial component defining shape, width, and directions of the sound component in a spherical harmonic domain; determine, based on one or more of the sound component and the corresponding spatial component, priority information indicative of a priority of the sound component relative to other sound components of the soundfield; and specify, in a data object representative of a compressed version of the higher order ambisonic audio data, the sound component and the priority information. decompose the higher order ambisonic coefficients into a sound component and a corresponding spatial component, the corresponding spatial component defining shape, width, and directions of the sound component in a spherical harmonic domain; determine, based on one or more of the sound component and the corresponding spatial component, priority information indicative of a priority of the sound component relative to other sound components of the soundfield; and specify, in a data object representative of a compressed version of the higher order ambisonic audio data, the sound component and the priority information.
Air conditioning installation, notably for a motor vehicle, equipped with an air conditioning circuit comprising a compressor, a condenser, an electric expansion valve the degree of opening of which varies according to a control signal, an evaporator, through which there passes, in that order, a refrigerant fluid, and an internal exchanger allowing the fluid circulating from the condenser towards the expansion device to release heat to the fluid circulating from the evaporator towards the compressor, the air conditioning installation further comprising a control unit able to control the control signal that operates the expansion valve on the basis of temperature and pressure measurements taken by a refrigerant fluid temperature and pressure sensor (27, 28) positioned at the outlet of the condenser and/or at the inlet of the expansion valve so as to regulate a control parameter relating to the subcooling of the condenser according to a chosen control law, the installation being characterized in that it uses the control signal that operates the expansion valve to regulate the efficiency of the internal exchanger so as to ensure protection against too high a compressor delivery temperature and limit the compressor intake pressure, the control unit being able to compare the efficiency of the internal exchanger against a predefined threshold in order to regulate the efficiency of the internal exchanger, the control unit also being able to determine the value of the efficiency of the internal exchanger from the mass flow rate of the refrigerant fluid estimated from measurements of the high pressure and of the subcooled temperature of the refrigerant fluid.
A deformable mirror device, comprising - a flexible layer (20, 28, 30) having a front surface that forms a mirror surface or to which a mirror layer forming mirror surface is attached, the flexible layer consisting homogeneously of a first material; - protrusions (26, 32) extending from, or attached to, a back surface (24, 30) of the flexible layer (20, 28, 30) the protrusions consisting homogeneously of the first material or a second material that has substantially the same thermal expansion coefficient as the first material, - a plurality of actuators the actuators being coupled to the protrusions (26, 32) and via the protrusions to the flexible layer (20, 28, 30) to deform the flexible layer (20, 28, 30) wherein coupled surfaces of the distal end of each protrusion (26, 32) and the distal end of a movable part of the actuator that is coupled to the protrusions (26, 32) respectively have different ones of (i) a convex surface that at least partly has a spherical shape, and (ii) a part-spherical concave surface with the same radius of curvature as the convex surface that at least partly has the spherical shape. - a flexible layer (20, 28, 30) having a front surface that forms a mirror surface or to which a mirror layer forming mirror surface is attached, the flexible layer consisting homogeneously of a first material; - protrusions (26, 32) extending from, or attached to, a back surface (24, 30) of the flexible layer (20, 28, 30) the protrusions consisting homogeneously of the first material or a second material that has substantially the same thermal expansion coefficient as the first material, - a plurality of actuators the actuators being coupled to the protrusions (26, 32) and via the protrusions to the flexible layer (20, 28, 30) to deform the flexible layer (20, 28, 30)
A folding box comprising a tray with a bottom wall and side walls (3, 4, 5, 6) and a lid with a top wall for covering the tray, wherein the lid has two connection tabs (32, 33) which are connected to at least one side wall (4, 6) of the tray, two corner connection tabs (34, 35) which are connected in each case to a connection tab (32, 33) via a vertical first fold line (36, 37) and to a first edge of the top wall via a horizontal second fold line (38, 39), characterized by a separation line running perpendicularly to the first edge and dividing the top wall into two top wall halves (31', 32") and a tuck-in tongue, which is connected to a second edge of the top wall opposite the first edge via a third fold line which spans the separation line, and which is divided into two tuck-in tongue halves (44', 44") by a fourth fold line which extends in continuation of the separation line, as a result of which the top wall can optionally be folded up by folding about the horizontal second fold lines (38, 39) between the corner connection tabs (34, 35) and the top wall, or can be opened outward by folding the tuck-in tongue about the third fold line against the inside of the top wall and by folding the top wall halves (31', 31") about the fourth fold line in the tuck-in tongue and about the vertical first fold lines (36, 37) between the corner connection tabs (34, 35) and the connection tabs (32, 33).
A method for controlling one or more electronic devices, comprising: detecting (602; 622), by an active illumination depth camera, an end user command associated with the one or more electronic devices; determining (604; 626), by one or more processors in communication with the active illumination depth camera, one or more device instructions for controlling the one or more electronic devices based on the detected end user command; mapping (606; 628), by one or more processors in communication with the active illumination depth camera, the determined one or more device instructions to a sequence of coded light pulses which imitate the IR pulses associated with a remote control protocol; projecting (608; 630) a sequence of light patterns originating from the active illumination depth camera into an environment, the sequence of light patterns being modulated in order to generate light patterns matching the mapped sequence of coded light pulses and capturing (610; 632) a reflected light pattern from a reflection by the environment of a first light pattern of the projected sequence of light patterns, wherein the first light pattern is a first pulse of the mapped sequence of coded light pulses, and generating (612; 634), by the one or more processors in communication with the active illumination depth camera, depth information associated with the environment using the reflected light pattern. detecting (602; 622), by an active illumination depth camera, an end user command associated with the one or more electronic devices; determining (604; 626), by one or more processors in communication with the active illumination depth camera, one or more device instructions for controlling the one or more electronic devices based on the detected end user command; mapping (606; 628), by one or more processors in communication with the active illumination depth camera, the determined one or more device instructions to a sequence of coded light pulses which imitate the IR pulses associated with a remote control protocol; projecting (608; 630) a sequence of light patterns originating from the active illumination depth camera into an environment, the sequence of light patterns being modulated in order to generate light patterns matching the mapped sequence of coded light pulses and capturing (610; 632) a reflected light pattern from a reflection by the environment of a first light pattern of the projected sequence of light patterns, wherein the first light pattern is a first pulse of the mapped sequence of coded light pulses, and generating (612; 634), by the one or more processors in communication with the active illumination depth camera, depth information associated with the environment using the reflected light pattern.
Method for operating an escape route device having a door locked by means of a locking device (22, 24) and an emergency switch device having an emergency switch for effecting the unlocking of the door, having the successive steps: - detecting an actuation of the emergency switch by the emergency switch device, - emitting a signal signalling the actuation of the emergency switch by the emergency switch device via a time-controlled or an event-controlled data bus to the locking device (22, 24), by the signal being sent in the next time slot with the time-controlled data bus or the signal being sent as the next event with an event-controlled data bus, avoiding data collision, - receiving and detecting the signal by the locking device (22, 24), - unlocking the door by the locking device (22, 24). - detecting an actuation of the emergency switch by the emergency switch device, - emitting a signal signalling the actuation of the emergency switch by the emergency switch device via a time-controlled or an event-controlled data bus to the locking device (22, 24), by the signal being sent in the next time slot with the time-controlled data bus or the signal being sent as the next event with an event-controlled data bus, avoiding data collision, - receiving and detecting the signal by the locking device (22, 24), - unlocking the door by the locking device (22, 24).
A system for determining soil levelness as an agricultural implement is being towed across a field by a work vehicle, the system comprising a vision-based sensor provided in operative association with one of the work vehicle or the agricultural implement such that the vision-based sensor is configured to capture vision data associated with a portion of the field present within a field of view of the vision-based sensor, the system further comprising a controller communicatively coupled to the vision-based sensor, the controller including a processor and associated memory, the memory storing instructions that, when implemented by the processor, configure the controller to receive, from the vision-based sensor, the vision data associated with the portion of the field present within the field of view of the vision-based sensor, the vision data being in a spatial domain; the system characterized by the controller being further configured to transform the vision data from the spatial domain to a frequency domain using a spectral analysis; and determine a soil levelness of the portion of the field present within the field of view of the vision-based sensor based on the transformed vision data in the frequency domain. transform the vision data from the spatial domain to a frequency domain using a spectral analysis; and determine a soil levelness of the portion of the field present within the field of view of the vision-based sensor based on the transformed vision data in the frequency domain.
A facility for growing vegetation, the facility comprising - at least one container for taking aquatic animals and/or aquatic organisms, - at least one hydroponic part, - at least one device for medium circulation, said medium comprising water and/or substance, the facility further comprising at least one unit for distillation, characterized in that the unit for distillation is positioned within the facility, such that it receives medium from the hydroponic part and distills the medium, thereby on the one hand obtaining demineralized water, and on the other hand concentrating a hydroponic nutrient solution in order to direct the demineralized water to the at least one container for the aquatic animals and / or organisms, and to make available the concentrated nutrients for the plants in the hydroponic part - at least one container for taking aquatic animals and/or aquatic organisms, - at least one hydroponic part, - at least one device for medium circulation, said medium comprising water and/or substance, the facility further comprising at least one unit for distillation, characterized in that the unit for distillation is positioned within the facility, such that it receives medium from the hydroponic part and distills the medium, thereby on the one hand obtaining demineralized water, and on the other hand concentrating a hydroponic nutrient solution in order to direct the demineralized water to the at least one container for the aquatic animals and / or organisms, and to make available the concentrated nutrients for the plants in the hydroponic part
A posture monitoring device for use with a seat, comprising at least two pressure sensors (18, 20), a mount for securing the pressure sensors to a seat back, the mount including a hook for fitting over the seat back and a flexible strap depending from the hook, and output means (22, 122) for alerting when the pressure measured on at least one of the pressure sensors falls outside of a predetermined range, characterised in that the sensors are spaced apart along the length of the strap and mounted to the strap.
Method for determining the spectral and spatial distribution, along at least one axis, of a braking photon flow which results from the interaction of pulses of electrons on a braking target, the method comprising: - at a first point of the axis, a first neutron measurement which results from an integration of neutron detection and counting signals, each neutron detection and counting signal resulting from the impact of braking photons (ph) on a first conversion target centred on said first point, the first conversion target being sensitive to photons of energy substantially greater than a first energy threshold, the neutrons that participate in the formation of a detection and counting signal being detected and counted over a time range between two successive pulses of electrons, - successive movements of the first conversion target at different points of the axis, a neutron measurement complying with the neutron measurement carried out at the first point of the axis being carried out at each of the different points of the axis, and - a succession of neutron measurements complying with the measurements carried out at said first point and said different points, with the aid of a succession of different conversion targets associated with energy thresholds different from each other and different from the first energy threshold. - at a first point of the axis, a first neutron measurement which results from an integration of neutron detection and counting signals, each neutron detection and counting signal resulting from the impact of braking photons (ph) on a first conversion target centred on said first point, the first conversion target being sensitive to photons of energy substantially greater than a first energy threshold, the neutrons that participate in the formation of a detection and counting signal being detected and counted over a time range between two successive pulses of electrons, - successive movements of the first conversion target at different points of the axis, a neutron measurement complying with the neutron measurement carried out at the first point of the axis being carried out at each of the different points of the axis, and - a succession of neutron measurements complying with the measurements carried out at said first point and said different points, with the aid of a succession of different conversion targets associated with energy thresholds different from each other and different from the first energy threshold.
A detection device for luminescence analysis comprising: a member having an analysis area to analyze a sample by luminescence; a window material for transmitting light emitted from the sample in the analysis area; a photodetector for detecting the light transmitted through the window material; a highly reflective light-guide system having an entry port, an exit port, and a highly reflective light-guide surface to reflect the light that is emitted from the sample and enters the entry port opposing the window material and to propagate the reflected light to the exit port opposing a light reception surface of the photodetector; and an optical filter provided between the window material and the photodetector for transmitting signal emission to be measured that is emitted from the sample, wherein the optical filter is provided in a closed space surrounded by the window material, the photodetector, and the highly reflective light-guide system, characterized in that the optical filter is fixed either to the window material at the light entry port the highly reflective light-guide system as the fitting portion for the optical filter or to the photodetector at the light exit port of the highly reflective light-guide system as the fitting portion, and in that the outer peripheral shape of the optical filter is smaller than the inner shape of the fitting portion of the highly reflective light-guide system. a member having an analysis area to analyze a sample by luminescence; a window material for transmitting light emitted from the sample in the analysis area; a photodetector for detecting the light transmitted through the window material; a highly reflective light-guide system having an entry port, an exit port, and a highly reflective light-guide surface to reflect the light that is emitted from the sample and enters the entry port opposing the window material and to propagate the reflected light to the exit port opposing a light reception surface of the photodetector; and an optical filter provided between the window material and the photodetector for transmitting signal emission to be measured that is emitted from the sample, wherein the optical filter is provided in a closed space surrounded by the window material, the photodetector, and the highly reflective light-guide system, characterized in that the optical filter is fixed either to the window material at the light entry port the highly reflective light-guide system as the fitting portion for the optical filter or to the photodetector at the light exit port of the highly reflective light-guide system as the fitting portion, and in that the outer peripheral shape of the optical filter is smaller than the inner shape of the fitting portion of the highly reflective light-guide system.
A method of manufacturing a mandrel package used to manufacture a composite structure, the method comprising steps of: placing a wrap ply over a cavity of a die tool; placing a mandrel onto the wrap ply placed over the cavity; pressing the mandrel and the wrap ply into the cavity; wrapping the wrap ply around the mandrel to form a wrapped mandrel, wherein the step of wrapping includes partially wrapping the wrap ply around an exterior surface of the mandrel when pressing the mandrel and the wrap ply into the cavity to thereby form a partially wrapped mandrel, and further wrapping the wrap ply around the mandrel by sweep arms, movable relative to the die tool, to form the wrapped mandrel; placing a first radius filler at a first radius of the wrapped mandrel; placing a second radius filler at a second radius of the wrapped mandrel; and consolidating the mandrel, the wrap ply, the first radius filler, and the second radius filler to form the mandrel package. placing a wrap ply over a cavity of a die tool; placing a mandrel onto the wrap ply placed over the cavity; pressing the mandrel and the wrap ply into the cavity; wrapping the wrap ply around the mandrel to form a wrapped mandrel, wherein the step of wrapping includes partially wrapping the wrap ply around an exterior surface of the mandrel when pressing the mandrel and the wrap ply into the cavity to thereby form a partially wrapped mandrel, and further wrapping the wrap ply around the mandrel by sweep arms, movable relative to the die tool, to form the wrapped mandrel; placing a first radius filler at a first radius of the wrapped mandrel; placing a second radius filler at a second radius of the wrapped mandrel; and consolidating the mandrel, the wrap ply, the first radius filler, and the second radius filler to form the mandrel package.