mhurhangee/ep-ind-claims huggingface dataset:
Method for determining a visual aid depending on the behavior of an individual during a specific reading phase, comprising the following steps, - a step in which the individual is made to take a specific test in which a medium including a text comprising a succession of commonplace words and into which defects have been introduced between said words in predetermined locations is read, said defects introducing disruptions apt to make the text devoid of sense, - a step in which the individual reads said text out loud, - a step in which an optical indicator related to noted reading errors and allowing the quality of the reading to be characterized is attributed, - a step of selecting the most appropriate visual aiding means depending on the determined optical indicator. - a step in which the individual is made to take a specific test in which a medium including a text comprising a succession of commonplace words and into which defects have been introduced between said words in predetermined locations is read, said defects introducing disruptions apt to make the text devoid of sense, - a step in which the individual reads said text out loud, - a step in which an optical indicator related to noted reading errors and allowing the quality of the reading to be characterized is attributed, - a step of selecting the most appropriate visual aiding means depending on the determined optical indicator.
A helmet cover assembly comprising: a cover comprised of a non-elastic material and configured to extend over an entire outer surface of a helmet; and at least one mounting device (20, 22) attached to the cover, the at least one mounting device including a mount configured for night vision goggles, a light, a strobe light, a face shield, neck protection, a headset, a video camera or an oxygen mask; wherein the cover is configured to extend over a bottom edge of the helmet and be releasably coupled to an inside surface of the helmet by one or more hook and pile fasteners. a cover comprised of a non-elastic material and configured to extend over an entire outer surface of a helmet; and at least one mounting device (20, 22) attached to the cover, the at least one mounting device including a mount configured for night vision goggles, a light, a strobe light, a face shield, neck protection, a headset, a video camera or an oxygen mask; wherein the cover is configured to extend over a bottom edge of the helmet and be releasably coupled to an inside surface of the helmet by one or more hook and pile fasteners.
A method for forming a discrete stream of matter in a plasma state, the method comprising: providing a nitric oxide production device having: a torch body; two electrodes disposed in the torch body and insulated from each other; a coolant loop disposed in the torch body and surrounding the two electrodes; and a cooled channel cooled by the coolant loop; forming a stream of matter in the NO production device, the forming comprising: channeling air between the two electrodes such that an arc discharge is generated and maintained between the two electrodes to form a NO-containing gas flow from the air in the area between the two electrodes under the effect of the arc discharge; and withdrawing the NO-containing gas flow through the cooled channel; wherein the stream of matter has, as part of its content, NO in a concentration from 200 parts per million (ppm) to 1000 ppm; and outputting the stream of matter from an outlet of the device. providing a nitric oxide production device having: a torch body; two electrodes disposed in the torch body and insulated from each other; a coolant loop disposed in the torch body and surrounding the two electrodes; and a cooled channel cooled by the coolant loop; forming a stream of matter in the NO production device, the forming comprising: channeling air between the two electrodes such that an arc discharge is generated and maintained between the two electrodes to form a NO-containing gas flow from the air in the area between the two electrodes under the effect of the arc discharge; and withdrawing the NO-containing gas flow through the cooled channel; channeling air between the two electrodes such that an arc discharge is generated and maintained between the two electrodes to form a NO-containing gas flow from the air in the area between the two electrodes under the effect of the arc discharge; and withdrawing the NO-containing gas flow through the cooled channel; wherein the stream of matter has, as part of its content, NO in a concentration from 200 parts per million (ppm) to 1000 ppm; and outputting the stream of matter from an outlet of the device.
An extendable rail for a curtain, comprising a main rail, an auxiliary rail arranged in parallel with the main rail; the main rail being shiftable in longitudinal direction relative to the auxiliary rail such that they are overlappingly positioned, and the main rail is configured with a driving wheel at one end and a first reverse wheel at the other end; the auxiliary rail is configured with a second reverse wheel at the end that is away from the driving wheel and a transition arrangement at the end approximate to the driving wheel; the transition arrangement comprises a transition casing with a first guiding wheel and a second guiding wheel arranged inside; and a belt loop with fixed length wraps around the driving wheel, the first reverse wheel, the first guiding wheel, the second reverse wheel, the second guiding wheel, and the driving wheel in turn.
Drum for a washing machine for washing and/or spin-drying mattresses, the drum being rotatable about a substantially horizontal axis and comprising at least one compartment of parallelepipedal shape, characterized in that the compartment is suitable for containing a mattress having a size between 70 cm X 140 cm and 200 cm X 200 cm for a thickness between 3 cm and 40 cm, and a weight ranging from 5 kg to 70 kg, enabling mattresses to be inserted into the drum without having to bend or substantially deform them from their usual common shape.
A glass window having a luminous capability and comprising: at least one glass sheet layer, including a first glass sheet layer of soda-lime glass; a thin film layer having fine particles dispersed in a matrix of silicon oxide-based thin-film material, the thin film layer being from 1 to 10 μm thick and covering all or substantially all of a main surface of the first glass sheet layer; and a light source, positioned at an edge portion (32,22) of at least one of the thin film layer and the glass sheet layer or, if the window comprises a second glass sheet layer and interlayer between said glass layers, at an edge portion of at least one of the thin film layer, the glass sheet layer, the second glass sheet layer and the interlayer; wherein in its non-luminous state a haze of the glass window, as measured by International Organization for Standardization Standard 14782:1999, is below approximately 10%. a light source, positioned at an edge portion (32,22) of at least one of the thin film layer and the glass sheet layer or, if the window comprises a second glass sheet layer and interlayer between said glass layers, at an edge portion of at least one of the thin film layer, the glass sheet layer, the second glass sheet layer and the interlayer; wherein in its non-luminous state a haze of the glass window, as measured by International Organization for Standardization Standard 14782:1999, is below approximately 10%.
An electromagnetic positioning device having an anchor unit, which is moveable in an axial direction around a movement stroke relative to a stationary core unit and in reaction to a spool unit being energized using an operating current and which, on one end, magnetically interacts with the core unit via a control area overlapping axially along the movement stroke at least in sections, said control area comprising a first profile section (34, 44) as a section of the anchor unit and, as a section of the core unit, a second profile section (36, 46) having an air gap realized therebetween and realizing an expansion perpendicular to the axial direction, a cross section of the first and of the second profile section, which is flow-effective for a magnetic flow of the energization using the operating current flowing via the air gap, being realized such that in response to a reduction of the air-gap expansion caused by the anchor unit being tilted and/or deflected from the axial direction, a magnetic flow resistance of the first and/or the second profile section increases in the area of the reduction via magnetic saturation and a force opposing the tilt or the deflection acts on the anchor unit, characterized in that the anchor unit comprising a cylindrical anchor body does not comprise a pestle guide or a pestle mount and/or is mounted without film means, in particular without a sliding film, on the exterior.
A Minimization of Driving Test, MDT, Logs reporting method, comprising: receiving, by a User Equipment, UE, first Logged MDT configuration information configured by a master base station for the UE, and receiving, by the UE, second Logged MDT configuration information configured by at least one secondary base station for the UE, wherein Logged MDT corresponds to a UE in an idle state or in an inactive state and wherein the UE is in a multi-connectivity operation mode in which the UE is connected to the master base station and the at least one secondary base station at the same time; exiting, by the UE, the multi-connectivity operation mode, executing, by the UE, a first Logged MDT operation according to the first Logged MDT configuration information to acquire first MDT Logs, and executing, by the UE, a second Logged MDT operation according to the second Logged MDT configuration information to acquire second MDT Logs; and re-establishing, by the UE, the multi-connectivity operation mode with a current master base station and at least one current secondary base station, and reporting, by the UE, the first MDT Logs and/or the second MDT Logs to the current master base station and/or the at least one current secondary base station. receiving, by a User Equipment, UE, first Logged MDT configuration information configured by a master base station for the UE, and receiving, by the UE, second Logged MDT configuration information configured by at least one secondary base station for the UE, wherein Logged MDT corresponds to a UE in an idle state or in an inactive state and wherein the UE is in a multi-connectivity operation mode in which the UE is connected to the master base station and the at least one secondary base station at the same time; exiting, by the UE, the multi-connectivity operation mode, executing, by the UE, a first Logged MDT operation according to the first Logged MDT configuration information to acquire first MDT Logs, and executing, by the UE, a second Logged MDT operation according to the second Logged MDT configuration information to acquire second MDT Logs; and re-establishing, by the UE, the multi-connectivity operation mode with a current master base station and at least one current secondary base station, and reporting, by the UE, the first MDT Logs and/or the second MDT Logs to the current master base station and/or the at least one current secondary base station.
Otoscope comprising: - a handle portion allowing a user to manipulate the otoscope during its application; and - a head portion exhibiting a substantially tapering form extending along a longitudinal axis of the head portion, wherein the head portion has a proximal end adjacent to the handle portion and a smaller distal end configured to be introduced in an ear canal of a patient's outer ear and wherein adjacent to an inner lateral surface of the distal end, the head portion exhibits a cavity for accommodating an optical component of the electronic imaging unit, wherein the otoscope further comprises an optical electronic imaging unit positioned at the distal end of the head portion, wherein the electronic imaging unit comprises at least one camera (40.1) and exhibits at least one optical axis (X; X1, X2) which is positioned radially offset from the longitudinal axis as the center axis, characterized in that a distal tip of the head portion exhibits an outer diameter of at least 4.7mm and wherein a ratio of the radial offset and the outer diameter of the distal tip is in the range of 0.35 - 0.55. - a handle portion allowing a user to manipulate the otoscope during its application; and - a head portion exhibiting a substantially tapering form extending along a longitudinal axis of the head portion, wherein the head portion has a proximal end adjacent to the handle portion and a smaller distal end configured to be introduced in an ear canal of a patient's outer ear and wherein adjacent to an inner lateral surface of the distal end, the head portion exhibits a cavity for accommodating an optical component of the electronic imaging unit, wherein
A cold plate base comprising: a fluid intake region located at a distal end of the cold plate base, and a fluid outtake region located at a proximal end of the cold plate base that is opposite the distal end; a fin region positioned between the fluid intake region and the fluid outtake region, wherein the fin region extends from a base surface of the cold plate base; a plurality of protrusions at the fluid intake region, wherein each of the plurality of protrusions radiates from the fluid intake region to create flow paths across the fin region, wherein the plurality of protrusions has a central axis (A-A), characterized in that the protrusion that is farthest away from the central axis (A-A) has an arc shape. a fluid intake region located at a distal end of the cold plate base, and a fluid outtake region located at a proximal end of the cold plate base that is opposite the distal end; a fin region positioned between the fluid intake region and the fluid outtake region, wherein the fin region extends from a base surface of the cold plate base; a plurality of protrusions at the fluid intake region, wherein each of the plurality of protrusions radiates from the fluid intake region to create flow paths across the fin region, wherein the plurality of protrusions has a central axis (A-A), characterized in that the protrusion that is farthest away from the central axis (A-A) has an arc shape.
An integrated circuit device comprising: a substrate having a backside surface; a pair of fin-type active regions protruding from the substrate and defining a trench region in the substrate on an opposite side of the backside surface, wherein the pair of fin-type active regions extend in a first lateral direction; a pair of source/drain regions disposed, one-by-one, on the pair of fin-type active regions, respectively; a device isolation film covering a sidewall of each of the pair of fin-type active regions and disposed in the trench region; a via power rail disposed between the pair of fin-type active regions and between the pair of source/drain regions, wherein the via power rail passes through the device isolation film in a vertical direction; a backside power rail passing through the substrate in the vertical direction and disposed at a position overlapping the via power rail in the vertical direction, wherein the backside power rail is connected to the via power rail; and an air spacer (AG1, AG2) disposed between the substrate and the backside power rail. a substrate having a backside surface; a pair of fin-type active regions protruding from the substrate and defining a trench region in the substrate on an opposite side of the backside surface, wherein the pair of fin-type active regions extend in a first lateral direction; a pair of source/drain regions disposed, one-by-one, on the pair of fin-type active regions, respectively; a device isolation film covering a sidewall of each of the pair of fin-type active regions and disposed in the trench region; a via power rail disposed between the pair of fin-type active regions and between the pair of source/drain regions, wherein the via power rail passes through the device isolation film in a vertical direction; a backside power rail passing through the substrate in the vertical direction and disposed at a position overlapping the via power rail in the vertical direction, wherein the backside power rail is connected to the via power rail; and an air spacer (AG1, AG2) disposed between the substrate and the backside power rail.
A rotor blade assembly comprising: a rotor blade including a pocket; and a housing located at the rotor blade within the pocket; a drive mechanism; and a control surface operably connected to the drive mechanism, the drive mechanism controlling a position of the control surface; characterized in that the drive mechanism is disposed in the housing; and in that the rotor blade assembly further comprises: two interface pieces secured to the rotor blade to define a rotor opening having lateral ends, wherein one interface piece is installed at each lateral end of the rotor opening, the housing secured to the interface pieces via one or more dovetail joints (38, 40); and a wireless controller disposed in the housing and operably connected to the drive mechanism to communicate commands to the drive mechanism; each of the interface pieces including an interface dovetail to receive a corresponding housing dovetail of the housing. a rotor blade including a pocket; and a housing located at the rotor blade within the pocket; a drive mechanism; and a control surface operably connected to the drive mechanism, the drive mechanism controlling a position of the control surface; characterized in that the drive mechanism is disposed in the housing; and in that the rotor blade assembly further comprises: two interface pieces secured to the rotor blade to define a rotor opening having lateral ends, wherein one interface piece is installed at each lateral end of the rotor opening, the housing secured to the interface pieces via one or more dovetail joints (38, 40); and a wireless controller disposed in the housing and operably connected to the drive mechanism to communicate commands to the drive mechanism; two interface pieces secured to the rotor blade to define a rotor opening having lateral ends, wherein one interface piece is installed at each lateral end of the rotor opening, the housing secured to the interface pieces via one or more dovetail joints (38, 40); and a wireless controller disposed in the housing and operably connected to the drive mechanism to communicate commands to the drive mechanism; each of the interface pieces including an interface dovetail to receive a corresponding housing dovetail of the housing.
A method of correcting a satellite image acquiring posture, the method comprising: Receiving, from a ground-based orbit propagator, a desired satellite position P Desired of a satellite for imaging and a planned ground imaging time T Imaging, in response to an image acquisition command; Estimating a predicted satellite position P Predicted at which the satellite is to be disposed at the planned ground imaging time T Imaging; characterised in that the method comprises: Calculating a posture correction angle dθ for the satellite at the predicted satellite position P Predicted using the desired satellite position P Desired; and Performing control to obtain an image from the satellite, after a posture of the satellite is corrected based on the posture correction angle dθ. Receiving, from a ground-based orbit propagator, a desired satellite position P Desired of a satellite for imaging and a planned ground imaging time T Imaging, in response to an image acquisition command; Estimating a predicted satellite position P Predicted at which the satellite is to be disposed at the planned ground imaging time T Imaging; characterised in that the method comprises: Calculating a posture correction angle dθ for the satellite at the predicted satellite position P Predicted using the desired satellite position P Desired; and Performing control to obtain an image from the satellite, after a posture of the satellite is corrected based on the posture correction angle dθ. Calculating a posture correction angle dθ for the satellite at the predicted satellite position P Predicted using the desired satellite position P Desired; and Performing control to obtain an image from the satellite, after a posture of the satellite is corrected based on the posture correction angle dθ.
A suppressor assembly for use with a firearm, comprising: a baffle having a concentric bore extending therethrough from a threaded opening and a series of annular passageways that each connect the concentric bore with a tapered exterior surface of the baffle, the series of annular passageways being axially inclined rearward with respect to a rearward end of the baffle; a rear seal plate; a housing; and a front end cap, wherein the housing, the rear seal plate and the front end cap define an expansion chamber for receipt of expansion gases received from the baffle. a baffle having a concentric bore extending therethrough from a threaded opening and a series of annular passageways that each connect the concentric bore with a tapered exterior surface of the baffle, the series of annular passageways being axially inclined rearward with respect to a rearward end of the baffle; a rear seal plate; a housing; and a front end cap, wherein the housing, the rear seal plate and the front end cap define an expansion chamber for receipt of expansion gases received from the baffle.
Air inlet casing intended to supply, at the outlet thereof, a heating, ventilation and/or air-conditioning system, comprising a first circuit, intended to supply fresh and/or recycled air to at least one air delivery device, and a second circuit intended to supply said system with recycled air, characterized in that said casing further comprises a means (16, 17) enabling the provision of an additional flow of recycled air to that supplied by the second circuit, communicating with the first circuit, said first circuit being configured in such a way that a pressure drop upstream of the provision of the additional flow of recycled air is created therein.
A heater assembly (10; 30; 110; 150) comprising: a heated hose construction comprising: a thermoplastic conduit (12; 112; 132) having a wall thickness between 0.0076 cm and 0.1143 cm through which conduit (12; 112; 132) a process fluid to be heated flows, a support member (34; 154; 214; 320) for the heated hose construction, a resistance wire or resistance ribbon wound around an exterior periphery of the conduit (12; 112; 132) and in thermal communication therewith, a non-conductive braid layer being disposed over the resistance wire or resistance ribbon, characterized in that an overall coverage of a surface area of the conduit (12; 112; 132) by the resistance wire or resistance ribbon is at least 50% of the surface area of the conduit, so that the resistance wire or resistance ribbon reinforces or supports the conduit (12; 112; 132), and the braid layer is permeable to vapor leaking out of the conduit. a thermoplastic conduit (12; 112; 132) having a wall thickness between 0.0076 cm and 0.1143 cm through which conduit (12; 112; 132) a process fluid to be heated flows, a support member (34; 154; 214; 320) for the heated hose construction, a resistance wire or resistance ribbon wound around an exterior periphery of the conduit (12; 112; 132) and in thermal communication therewith, a non-conductive braid layer being disposed over the resistance wire or resistance ribbon, characterized in that an overall coverage of a surface area of the conduit (12; 112; 132) by the resistance wire or resistance ribbon is at least 50% of the surface area of the conduit, so that the resistance wire or resistance ribbon reinforces or supports the conduit (12; 112; 132), and the braid layer is permeable to vapor leaking out of the conduit.