mhurhangee/ep-ind-claims huggingface dataset:
A diving mask (10,...,210) including: a frame (12,...,212) fitted with a visor (18,...,218); a flexible skirt (40,...,240) including a partition (46,...,246) delimiting an upper chamber (50,...,250) for viewing from a lower chamber (52,...,252) for breathing, the partition being arranged to bear above the nose of the user such that the mouth and the nose of the user are in the lower chamber, while the eyes of the user are in the upper chamber, a breathing tube (20,...,220) having a proximal end (20a,...,220a) for linking the breathing tube to the frame, and a distal end (20b,...,220b) opposite to the proximal end, the breathing tube including at least one channel (21,...,221) fluidly connected with the lower chamber, the breathing tube being a tuba whose distal end is open; the diving mask being characterized in that it further includes a telecommunication device (500,...,2500) which is at least partly mounted to the breathing tube (20,...,220), wherein at least one part, the first part (502,...,1502), of the telecommunication device is disposed at the proximal end (20a,...,220a) of the breathing tube (20,...,220), wherein the first part includes a microphone (514,...,1514) and/or a speaker (504,...,1504), wherein at least one part, the second part (506,...,1506), of the telecommunication device is disposed at the distal end of the breathing tube, and wherein the second part includes an antenna (517,...,1517), and preferably emitter and/or receiver modules for emitting and/or receiving the radio signals. a frame (12,...,212) fitted with a visor (18,...,218); a flexible skirt (40,...,240) including a partition (46,...,246) delimiting an upper chamber (50,...,250) for viewing from a lower chamber (52,...,252) for breathing, the partition being arranged to bear above the nose of the user such that the mouth and the nose of the user are in the lower chamber, while the eyes of the user are in the upper chamber, a breathing tube (20,...,220) having a proximal end (20a,...,220a) for linking the breathing tube to the frame, and a distal end (20b,...,220b) opposite to the proximal end, the breathing tube including at least one channel (21,...,221) fluidly connected with the lower chamber, the breathing tube being a tuba whose distal end is open; the diving mask being characterized in that it further includes a telecommunication device (500,...,2500) which is at least partly mounted to the breathing tube (20,...,220), wherein at least one part, the first part (502,...,1502), of the telecommunication device is disposed at the proximal end (20a,...,220a) of the breathing tube (20,...,220), wherein the first part includes a microphone (514,...,1514) and/or a speaker (504,...,1504), wherein at least one part, the second part (506,...,1506), of the telecommunication device is disposed at the distal end of the breathing tube, and wherein the second part includes an antenna (517,...,1517), and preferably emitter and/or receiver modules for emitting and/or receiving the radio signals.
An object detection sensor network comprising: - at least two object detection sensors (101, 101'), each object detection sensor (101, 101') having at least two detection windows (102a, 102b, 102a', 102b') covering different detection areas (103a, 103b, 103a', 103b') or detection angles (104a, 104b, 104a', 104b'), - a plurality of processing units supplied with an analogue output signal of each of said object detection sensors (101, 101') and designed for calculating a motion direction of a detected object within the Field-of-View, FOV, (109, 109') of each object detection sensor (101, 101') based on said analogue output signal, - a signal combination unit, supplied with time-synchronized information of each of the processing units representing the respective calculated motion direction, and designed for calculating a motion path of the detected object in an area covering the FOVs (109, 109') of all object detection sensors (101, 101'), wherein the plurality of processing units are further configured to process the analogue output signal by means of a time domain signal processing technique, a frequency domain signal processing technique and a scale range signal processing technique to extract features from the analogue output signal, and to provide the extracted features to a machine learning, ML, model in each of the plurality of processing units, the ML model being configured to classify between different directions to calculate the motion direction of the detected object; and wherein the signal combination unit is further configured to provide the calculated motion directions of all object detection sensors (101, 101') to an algorithm in the signal combination unit, the algorithm being configured to perform sensor fusion between the object detection sensors (101, 101') to calculate the motion path of the detected object. - at least two object detection sensors (101, 101'), each object detection sensor (101, 101') having at least two detection windows (102a, 102b, 102a', 102b') covering different detection areas (103a, 103b, 103a', 103b') or detection angles (104a, 104b, 104a', 104b'), - a plurality of processing units supplied with an analogue output signal of each of said object detection sensors (101, 101') and designed for calculating a motion direction of a detected object within the Field-of-View, FOV, (109, 109') of each object detection sensor (101, 101') based on said analogue output signal, - a signal combination unit, supplied with time-synchronized information of each of the processing units representing the respective calculated motion direction, and designed for calculating a motion path of the detected object in an area covering the FOVs (109, 109') of all object detection sensors (101, 101'),
Bulletproof protection elementary component of the tile type comprising a prism-shaped body, with a base having a shape selected from circular, oval or polygonal, in case also with a concave shape, such as a star shape, with a first face and a second face of greater extension, which are opposite each other, and a side surface having a first height (Hc), wherein it comprises at least one raised section from said first face by a second height, said raised section being prism-shaped, with a base having a shape selected from circular, oval or polygonal, in case also with a concave shape, such as a star shape, said base area is less than an area of said first face, characterized in that said body comprising a recess realized in said second face and extending in said body by a third height.
Drainage system for draining a combustion engine of an aircraft, said drainage system being configured to collect at least one fluid present inside said combustion engine, said drainage system comprising at least one evacuation conduit for channelling said at least one fluid outside said combustion engine, said at least one fluid comprising at least one liquid and at least one gas, said drainage system comprising: • a separation housing configured to separate said at least one liquid and said at least one gas, said separation housing comprising an inlet, a first outlet and a second outlet, said inlet being arranged in fluid communication with said evacuation conduit, said inlet comprising a first tubular portion extending into the interior of said separation housing and said second outlet comprising a second tubular portion extending into the interior of said separation housing, said first tubular portion being arranged coaxially with said second tubular portion, • a flexible hose comprising a first end connected to said first outlet of said separation housing for collecting by gravity only said at least one liquid, • a pipe comprising a proximal end connected to said second outlet of said separation housing for evacuating only said at least one gas, characterised in that said first tubular portion is arranged at least partially in an internal area of said second tubular portion. • a separation housing configured to separate said at least one liquid and said at least one gas, said separation housing comprising an inlet, a first outlet and a second outlet, said inlet being arranged in fluid communication with said evacuation conduit, said inlet comprising a first tubular portion extending into the interior of said separation housing and said second outlet comprising a second tubular portion extending into the interior of said separation housing, said first tubular portion being arranged coaxially with said second tubular portion, • a flexible hose comprising a first end connected to said first outlet of said separation housing for collecting by gravity only said at least one liquid, • a pipe comprising a proximal end connected to said second outlet of said separation housing for evacuating only said at least one gas,
A motor comprising: a stator on which a plurality of coils are wound and disposed in a circular shape; a rotor having a plurality of permanent magnets spaced apart from the coils by a predetermined distance; and a motor controller performing a vector control method for controlling a current vector applied on a d-q axis rotating coordinate system in a start mode of the rotor to make a current speed (ω) of the rotor follow a reference speed (ωr*) of the rotor by comparing the current speed (ω) with the reference speed (ωr*), characterized by two hall sensors installed on the stator, the hall sensors being configured to generate a signal at every 90° electrical angle of the rotor, the motor controller comprises a speed/position detector for detecting the current speed (ω) and a current position of the rotor wherein the speed/position detector assumes a position of the rotor by converting at least one coefficient that is altered by an on/off signal of the hall sensors, acting as a factor of a sine function having a factor that is time, to allow the assumed position of the rotor to have continuous value without a discontinuity point, wherein the position of the rotor is repeatedly assumed with a cycle of an electrical angle of 360°. a stator on which a plurality of coils are wound and disposed in a circular shape; a rotor having a plurality of permanent magnets spaced apart from the coils by a predetermined distance; and a motor controller performing a vector control method for controlling a current vector applied on a d-q axis rotating coordinate system in a start mode of the rotor to make a current speed (ω) of the rotor follow a reference speed (ωr*) of the rotor by comparing the current speed (ω) with the reference speed (ωr*), characterized by two hall sensors installed on the stator, the hall sensors being configured to generate a signal at every 90° electrical angle of the rotor, the motor controller comprises a speed/position detector for detecting the current speed (ω) and a current position of the rotor wherein the speed/position detector assumes a position of the rotor by converting at least one coefficient that is altered by an on/off signal of the hall sensors, acting as a factor of a sine function having a factor that is time, to allow the assumed position of the rotor to have continuous value without a discontinuity point, wherein the position of the rotor is repeatedly assumed with a cycle of an electrical angle of 360°.
Horological movement comprising: - a running train dedicated to the time division of said horological movement, said running train being driven by a first energy source; - a regulating member for regulating the running train; - a chronograph mechanism comprising a chronograph train driven by a second energy source; - a coupling configured to couple the chronograph train, on demand, to the regulating member to regulate the chronograph train using the regulating member; - a chronograph start/stop control device cooperating with the coupling; characterised in that the coupling is a differential coupling comprising: - a first input wheel driven by said running train and having a rotational speed that is regulated by the regulating member; - an output wheel meshed with said chronograph train; - a second input wheel, which is an idle wheel, cooperating directly or indirectly with the chronograph start/stop control device; the coupling comprising a drive assembly (165, 166) configured to rotate the output wheel at said rotational speed regulated by the regulating member, when the rotation of the second input wheel is blocked by the chronograph start/stop control device. - a running train dedicated to the time division of said horological movement, said running train being driven by a first energy source; - a regulating member for regulating the running train; - a chronograph mechanism comprising a chronograph train driven by a second energy source; - a coupling configured to couple the chronograph train, on demand, to the regulating member to regulate the chronograph train using the regulating member; - a chronograph start/stop control device cooperating with the coupling; characterised in that the coupling is a differential coupling comprising: - a first input wheel driven by said running train and having a rotational speed that is regulated by the regulating member; - an output wheel meshed with said chronograph train; - a second input wheel, which is an idle wheel, cooperating directly or indirectly with the chronograph start/stop control device; - a first input wheel driven by said running train and having a rotational speed that is regulated by the regulating member; - an output wheel meshed with said chronograph train; - a second input wheel, which is an idle wheel, cooperating directly or indirectly with the chronograph start/stop control device; the coupling comprising a drive assembly (165, 166) configured to rotate the output wheel at said rotational speed regulated by the regulating member, when the rotation of the second input wheel is blocked by the chronograph start/stop control device.
A thermal detection system for detecting a thermal profile of an optical window of an airborne platform or vehicle that contains a sensor system having optical elements, the thermal detection system comprising: a thermal imager configured to be arranged within the airborne platform or vehicle and to image a portion of the optical window, wherein the portion of the optical window coincides with an optical path of the sensor system; and a processor that is in communication with the thermal imager and configured to receive images of the portion of the optical window to determine a thermal gradient of the portion of the optical window, wherein the processor is configured to apply corrections to the optical elements of the sensor system using the thermal gradient. a thermal imager configured to be arranged within the airborne platform or vehicle and to image a portion of the optical window, wherein the portion of the optical window coincides with an optical path of the sensor system; and a processor that is in communication with the thermal imager and configured to receive images of the portion of the optical window to determine a thermal gradient of the portion of the optical window, wherein the processor is configured to apply corrections to the optical elements of the sensor system using the thermal gradient.
Device for the manufacturing of composite parts comprising: - an airtight support for supporting one or more composite parts, - an airtight vacuum film, - at least one vacuum port adapted to provide a hydraulic connection between a first face of the vacuum film and a second face of the vacuum film, - an airtight seal for sealing at least a portion of the vacuum film to the support so as to form an airtight chamber, - a vacuum distribution device: ∘ adapted to be hydraulically connected to the vacuum port and placed between the support and the vacuum film, ∘ comprising a distribution base adapted to be hydraulically connected to the vacuum port, iaracterized in that the vacuum distribution device further comprises: - at least two elongated distribution branches, - a connector which is not connected to a vacuum port, for hydraulically connecting two distribution branches. - an airtight support for supporting one or more composite parts, - an airtight vacuum film, - at least one vacuum port adapted to provide a hydraulic connection between a first face of the vacuum film and a second face of the vacuum film, - an airtight seal for sealing at least a portion of the vacuum film to the support so as to form an airtight chamber, - a vacuum distribution device: ∘ adapted to be hydraulically connected to the vacuum port and placed between the support and the vacuum film, ∘ comprising a distribution base adapted to be hydraulically connected to the vacuum port, ∘ adapted to be hydraulically connected to the vacuum port and placed between the support and the vacuum film, ∘ comprising a distribution base adapted to be hydraulically connected to the vacuum port, - at least two elongated distribution branches, - a connector which is not connected to a vacuum port, for hydraulically connecting two distribution branches.
A user equipment, UE, comprising: means for generating a Subscription Concealed Identifier, SUCI: wherein the SUCI includes a Subscription Permanent Identifier, SUPI, concealed using a protection scheme of a plurality of protection schemes, and wherein the SUCI includes a protection scheme identifier identifying which of the plurality of protection schemes the UE used to conceal the SUPI, whereby the SUCI is configured to enable a second network apparatus to de-conceal the SUCI to the SUPI based on the protection scheme identified by the protection scheme identifier; and means for sending the SUCI including the protection scheme identifier to a first network apparatus for transmission to the second network apparatus during a Registration procedure, wherein the plurality of protection schemes includes a first scheme and a second scheme, wherein the protection scheme identifier identifies the first scheme in a case where the first scheme is used and identifies the second scheme in a case where the second scheme is used, wherein the means for sending is configured to send the SUCI included in a NAS message, wherein the NAS message is a Registration Request message, wherein the second network apparatus is a second core network apparatus, and wherein the second core network apparatus is a Unified Data Management, UDM. means for generating a Subscription Concealed Identifier, SUCI: wherein the SUCI includes a Subscription Permanent Identifier, SUPI, concealed using a protection scheme of a plurality of protection schemes, and wherein the SUCI includes a protection scheme identifier identifying which of the plurality of protection schemes the UE used to conceal the SUPI, whereby the SUCI is configured to enable a second network apparatus to de-conceal the SUCI to the SUPI based on the protection scheme identified by the protection scheme identifier; and wherein the SUCI includes a Subscription Permanent Identifier, SUPI, concealed using a protection scheme of a plurality of protection schemes, and wherein the SUCI includes a protection scheme identifier identifying which of the plurality of protection schemes the UE used to conceal the SUPI, whereby the SUCI is configured to enable a second network apparatus to de-conceal the SUCI to the SUPI based on the protection scheme identified by the protection scheme identifier; and means for sending the SUCI including the protection scheme identifier to a first network apparatus for transmission to the second network apparatus during a Registration procedure, wherein the plurality of protection schemes includes a first scheme and a second scheme, wherein the protection scheme identifier identifies the first scheme in a case where the first scheme is used and identifies the second scheme in a case where the second scheme is used, wherein the means for sending is configured to send the SUCI included in a NAS message, wherein the NAS message is a Registration Request message, wherein the second network apparatus is a second core network apparatus, and wherein the second core network apparatus is a Unified Data Management, UDM.
A laser sintering device comprising: - a laser source adapted to project a laser beam on a plane, and further adapted to change a direction of said laser beam such as to define an action area on said plane, and - a sintering platform adapted to provide a sintering area by supporting a layer of feedstock on at least a part of said sintering platform, - a rotation module adapted to move said sintering platform in a rotary motion about a horizontal axis substantially parallel to said plane, wherein said sintering platform is arranged such that at least a first region of said sintering area is located within said action area and at least a second region of said sintering area is located outside said action area, and characterized in that said sintering platform is movable from a first to a second position such that at least a part of said second region replaces at least a part of said first region within said action area,wherein in said second position said sintering platform is oriented upside-down as compared to a first position of said sintering platform. - a laser source adapted to project a laser beam on a plane, and further adapted to change a direction of said laser beam such as to define an action area on said plane, and - a sintering platform adapted to provide a sintering area by supporting a layer of feedstock on at least a part of said sintering platform, - a rotation module adapted to move said sintering platform in a rotary motion about a horizontal axis substantially parallel to said plane, wherein said sintering platform is arranged such that at least a first region of said sintering area is located within said action area and at least a second region of said sintering area is located outside said action area, and characterized in that said sintering platform is movable from a first to a second position such that at least a part of said second region replaces at least a part of said first region within said action area,wherein in said second position said sintering platform is oriented upside-down as compared to a first position of said sintering platform.
A handle grip member comprising a grip portion, a grip flange portion made of synthetic resin, an electric heating body, and electric power supply wires (8a, 8b); in which the grip portion comprises an inner part formed by a cylindrical body made of rubber, and an outer part (9, 21) formed by a tubular body made of rubber; characterised in that the inner part comprises an angular tube portion formed at a root end of the inner part, a ring-shaped portion formed at a free end, three to eight ribs extending in a longitudinal direction and formed on an inner surface of the inner part, a groove for a power supply wire formed in an outer surface of the inner part; the electric heating body is wound around an outer surface of the inner part; the electric power supply wires (8a, 8b) are covered with insulating sheaths and connected to both ends of the electric heating body; one of the electric power supply wires is disposed in the groove such that it extends under the electric heating body and besides the ring-shaped portion of the inner part; another of the electric power supply wires is connected to the electric heating body near the angular tube portion; free ends of the electric power supply wires (8a, 8b) are connected to an electrical power source via terminals provided in the grip flange portion; and in which the outer part (9, 21) is slipped onto the inner part having the electric heating body; and the angular tube portion is inserted into a hole of the grip flange portion, said hole having an angular shape corresponding to the angular tube portion, such that the grip portion cannot be freely rotated with respect to the grip flange portion, and the handle grip member can be fitted onto a handlebar of a motorcycle such that the ribs formed on the inner surface of the inner part will prevent free rotation of the inner part relative to the handlebar.