mhurhangee/ep-ind-claims huggingface dataset:
A compressible module for cable entries or pipe penetrations, the compressible module having an axial groove for localisation of the cable or pipe, characterized in that said compressible module in the direction of the cable or pipe, comprises at least two module sections in the form of compressible submodules (10, 20, 30, 310, 320, 330) having differing physical properties, wherein each submodule has an axial groove for localisation of the cable or pipe, wherein an outermost submodule is a sealing submodule and wherein the submodules are joined end to end.
Tool-support system for working on holes of a surface, said tool-support system including: - parallel first and second rails (102a-b) fixed to the surface, each of the rails (102a-b) having imprints regularly distributed over its length, and - a mobile tool-support including: - an optical system configured to capture at least one image of the surface and adapted to be moved on the mobile tool-support, - for each rail (102a-b), at least one wheel (120a-b, 130a-b) adapted to be moved on said rail (102a-b), and - a tool adapted to be moved on the mobile tool-support and carrying a working tip, - a control unit configured to control the movement of the mobile tool-support on the rails (102a-b), the movement of the tool and the movement of the optical system on the mobile tool-support, said tool-support system being such that, for each rail (102a-b), at least one of the at least one wheels (120a-b, 130a-b) moving on said rail (102a-b) includes on its rolling strip counter-imprints, each having a shape complementary to that of the imprints of said rail (102a-b) and such that the control unit is configured: - to analyze an image captured by the optical system and to detect the presence and a real position of a hole, - to calculate the distance between the real position of the hole and an expected position of the hole and to compare that distance to a predefined threshold, and - to verify if the part of the surface that can be reached by the tool has been entirely scanned by the optical system. - parallel first and second rails (102a-b) fixed to the surface, each of the rails (102a-b) having imprints regularly distributed over its length, and - a mobile tool-support including: - an optical system configured to capture at least one image of the surface and adapted to be moved on the mobile tool-support, - for each rail (102a-b), at least one wheel (120a-b, 130a-b) adapted to be moved on said rail (102a-b), and - a tool adapted to be moved on the mobile tool-support and carrying a working tip, - an optical system configured to capture at least one image of the surface and adapted to be moved on the mobile tool-support, - for each rail (102a-b), at least one wheel (120a-b, 130a-b) adapted to be moved on said rail (102a-b), and - a tool adapted to be moved on the mobile tool-support and carrying a working tip, - a control unit configured to control the movement of the mobile tool-support on the rails (102a-b), the movement of the tool and the movement of the optical system on the mobile tool-support, - to analyze an image captured by the optical system and to detect the presence and a real position of a hole, - to calculate the distance between the real position of the hole and an expected position of the hole and to compare that distance to a predefined threshold, and - to verify if the part of the surface that can be reached by the tool has been entirely scanned by the optical system.
A breaking device comprising a frame, an impact device comprising a pressure chamber and a percussion piston, which is an elongated object contributing to divide the pressure chamber into a rear pressure chamber and a front pressure chamber, at least one first low pressure port in the frame at the rear pressure chamber and at least one first low pressure channel extending from the at least one first low pressure port to an outer circumference of the frame of the breaking device,at least one first low pressure accumulator connected to the at least one first low pressure channel at the outer circumference of the frame of the breaking device, at least one first high pressure port in the frame at the front pressure chamber and at least one first high pressure channel extending from the at least one first high pressure port to the outer circumference of the frame of the breaking device, and at least one first high pressure accumulator connected to the at least one first high pressure channel at the outer circumference of the frame of the breaking device, characterized in that the breaking device further comprises at least one second low pressure port in the frame at the rear pressure chamber substantially radially opposite to the at least one first low pressure port and at least one second low pressure channel extending from the at least one second low pressure port to the outer circumference of the frame of the breaking device, at least one second low pressure accumulator connected to the at least one second low pressure channel at the outer circumference of the frame of the breaking device, at least one second high pressure port in the frame at the rear pressure chamber and at least one second high pressure channel extending from the at least one second high pressure port to the outer circumference of the frame of the breaking device, and at least one second high pressure accumulator connected to the at least one second high pressure channel at the outer circumference of the frame of the breaking device, wherein the at least one second low pressure channel is arranged to extend at least partly in an axial direction of the breaking device, whereby the at least one first low pressure accumulator and at least one second low pressure accumulator are arranged at the outer circumference of the frame of the breaking device at different positions in the axial direction of the breaking device; and the at least one first high pressure channel and the at least one second high pressure channel are arranged to extend substantially in the radial direction of the frame of the breaking device from the at least one first high pressure port and from the at least second high pressure port to the outer circumference of the frame of the breaking device, whereby the at least one first high pressure accumulator is positioned at the front pressure chamber and the at least one second high pressure accumulator is positioned at the rear pressure chamber.
Process for manufacturing composite material products (44, 48, 52), characterized in that it comprises at least the following operating steps: - moulding at least one plastic material spacer comprising one or more inserts (1, 2); - moulding at least one composite material product (44, 48, 52) comprising at least said spacer; and then - mechanically working at least one of said inserts (1, 2) for forming at least one threaded hole therein. - moulding at least one plastic material spacer comprising one or more inserts (1, 2); - moulding at least one composite material product (44, 48, 52) comprising at least said spacer; and then - mechanically working at least one of said inserts (1, 2) for forming at least one threaded hole therein.
A transmission apparatus, comprising: a re-arrangement processing section adapted to rearrange transmission data into an information word; an error correction code calculation section adapted to calculate an error correction code based on the information word and to add the error correction code to the information word to produce a codeword which comprises a plurality of coded data; a division section adapted to allocate each of a plurality of portions of the plurality of coded data of the codeword to a different transmission line of a plurality of transmission lines in an order in which the coded data are supplied from the error correction code calculation section; and a plurality of transmission sections, corresponding to the plurality of transmission lines, wherein each transmission section of the plurality of transmission sections transmits the allocated plurality of coded data to a reception apparatus through the corresponding transmission line of the plurality of transmission lines. a re-arrangement processing section adapted to rearrange transmission data into an information word; an error correction code calculation section adapted to calculate an error correction code based on the information word and to add the error correction code to the information word to produce a codeword which comprises a plurality of coded data; a division section adapted to allocate each of a plurality of portions of the plurality of coded data of the codeword to a different transmission line of a plurality of transmission lines in an order in which the coded data are supplied from the error correction code calculation section; and a plurality of transmission sections, corresponding to the plurality of transmission lines, wherein each transmission section of the plurality of transmission sections transmits the allocated plurality of coded data to a reception apparatus through the corresponding transmission line of the plurality of transmission lines.
A display device, comprising: a display module including a first non-folding region, a second non-folding region, and a folding region disposed between the first and second non-folding regions (NFA1, NFA2); a first body disposed below the first non-folding region; a second body disposed below the second non-folding region; a plurality of rotation pin units (RPN1, RPN2) connected to the first and second bodies (BD1, BD2) to provide a first and a second biaxial rotation axis (RX1, RX2), which is overlapped with the folding region, to the first and second bodies (BD1, BD2); the plurality of rotation pin units (RPN1, RPN2) comprise a first rotation pin unit defining the first biaxial rotation axis and a second rotation pin unit defining the second biaxial rotation axis, and a plurality of gears (GR1, GR2) which rotate in conjunction with the plurality of rotation pin units (RPN1, RPN2) characterized in that the plurality of gears (GR1, GR2) is disposed below the plurality of rotation pin units (RPN1, RPN2) and is separated from the plurality of rotation pin units (RPN1, RPN2). a display module including a first non-folding region, a second non-folding region, and a folding region disposed between the first and second non-folding regions (NFA1, NFA2); a first body disposed below the first non-folding region; a second body disposed below the second non-folding region; a plurality of rotation pin units (RPN1, RPN2) connected to the first and second bodies (BD1, BD2) to provide a first and a second biaxial rotation axis (RX1, RX2), which is overlapped with the folding region, to the first and second bodies (BD1, BD2); the plurality of rotation pin units (RPN1, RPN2) comprise a first rotation pin unit defining the first biaxial rotation axis and a second rotation pin unit defining the second biaxial rotation axis, and a plurality of gears (GR1, GR2) which rotate in conjunction with the plurality of rotation pin units (RPN1, RPN2) characterized in that the plurality of gears (GR1, GR2) is disposed below the plurality of rotation pin units (RPN1, RPN2) and is separated from the plurality of rotation pin units (RPN1, RPN2).
An accessory bag, comprising: a bottom wall, a front wall and a back wall, a top, and a pair of side walls extending between the front wall and back wall; characterized in that the bag further comprises a first pair of connection rails extending along the length of the front wall in direction between the bottom wall and the top, wherein the first pair of connection rails is formed by a series of loops extending from the front wall; a second pair of connection rails extending along the length of the back wall in direction between the bottom wall and the top; wherein the second pair of connection rails is formed by a series of loops extending from the back wall, and a connection handle comprising: a first end and a second end; a first connector on the first end configured to cooperate with the first pair of connection rails; a second connector on the second end configured to cooperate with the second pair of connection rails; and a handle, and that the length of the bag is adjustable by rolling it in from the top towards the bottom wall and the adjusted length is maintained by attaching the connection handle to the loops of the first and second pair of connection rails. a bottom wall, a front wall and a back wall, a top, and a pair of side walls extending between the front wall and back wall; characterized in that the bag further comprises a first pair of connection rails extending along the length of the front wall in direction between the bottom wall and the top, wherein the first pair of connection rails is formed by a series of loops extending from the front wall; a second pair of connection rails extending along the length of the back wall in direction between the bottom wall and the top; wherein the second pair of connection rails is formed by a series of loops extending from the back wall, and a connection handle comprising: a first end and a second end; a first connector on the first end configured to cooperate with the first pair of connection rails; a second connector on the second end configured to cooperate with the second pair of connection rails; and a handle, and that the length of the bag is adjustable by rolling it in from the top towards the bottom wall and the adjusted length is maintained by attaching the connection handle to the loops of the first and second pair of connection rails. a first end and a second end; a first connector on the first end configured to cooperate with the first pair of connection rails; a second connector on the second end configured to cooperate with the second pair of connection rails; and a handle, and that the length of the bag is adjustable by rolling it in from the top towards the bottom wall and the adjusted length is maintained by attaching the connection handle to the loops of the first and second pair of connection rails.
An insulating isolation assembly for an arc fault detection module, comprising: at least a first insulating isolation member and a second insulating isolation member, with the insulating isolation members being identical insulating isolation members having same structures, and with each insulating isolation member comprising: a body having four sides, comprising a first side and a second side opposite each other and a third side and a fourth side opposite each other; a first terminal accommodating slot, located on the first side; a second terminal accommodating slot, located on the second side, the second terminal accommodating slot of one insulating isolation member being capable of cooperating with the first terminal accommodating slot of the respective other insulating isolation member to form a terminal accommodating cavity for accommodating a terminal; a first plug-together component, located on the first side; and a second plug-together component, located on the second side, the second plug-together component of one insulating isolation member being capable of forming an interference fit with the first plug-together component of the respective other insulating isolation member. a body having four sides, comprising a first side and a second side opposite each other and a third side and a fourth side opposite each other; a first terminal accommodating slot, located on the first side; a second terminal accommodating slot, located on the second side, the second terminal accommodating slot of one insulating isolation member being capable of cooperating with the first terminal accommodating slot of the respective other insulating isolation member to form a terminal accommodating cavity for accommodating a terminal; a first plug-together component, located on the first side; and a second plug-together component, located on the second side, the second plug-together component of one insulating isolation member being capable of forming an interference fit with the first plug-together component of the respective other insulating isolation member.
A compression device for applying controllable compression to a portion of the anatomy of a user, comprising: a panel formed of a wearable material, the panel sized and configured to be applied to a portion of the anatomy of the user, the panel having opposite ends configured to oppose each other when the panel is applied to the portion of the anatomy; a plurality of shape memory wires supported by the panel between said opposite ends and configured to apply a compressive force to the portion of the anatomy of the user; and a controller configured to selectively actuate one or more of the plurality of shape-memory wires to reduce the effective length of the wires and thus the panel about the portion of the anatomy, to thereby apply pressure to the portion of the anatomy of the user, characterized in that the controller is operable to apply pulse width modulation control to the plurality of shape memory wires to control the temperature of the wires, wherein the controller is configured to apply current to selectively actuated ones of the wires sufficient to achieve 2-15% shrinkage of the length the wire, and wherein the controller is configured to apply a current of 0.2-4 amps at a voltage of 5-30V for a duration of 1.5-3.5 seconds at a pulse width modulation frequency of 2-10kHz. a panel formed of a wearable material, the panel sized and configured to be applied to a portion of the anatomy of the user, the panel having opposite ends configured to oppose each other when the panel is applied to the portion of the anatomy; a plurality of shape memory wires supported by the panel between said opposite ends and configured to apply a compressive force to the portion of the anatomy of the user; and a controller configured to selectively actuate one or more of the plurality of shape-memory wires to reduce the effective length of the wires and thus the panel about the portion of the anatomy, to thereby apply pressure to the portion of the anatomy of the user, characterized in that the controller is operable to apply pulse width modulation control to the plurality of shape memory wires to control the temperature of the wires, wherein the controller is configured to apply current to selectively actuated ones of the wires sufficient to achieve 2-15% shrinkage of the length the wire, and wherein the controller is configured to apply a current of 0.2-4 amps at a voltage of 5-30V for a duration of 1.5-3.5 seconds at a pulse width modulation frequency of 2-10kHz.
A multi-stage supercharging apparatus comprising a first supercharger and a second supercharger which are driven by an exhaust gas of an engine, wherein the first supercharger is provided with a first turbine, a first turbine accommodating section which accommodates the first turbine, a first exhaust inlet which is directly connected to an exhaust gas manifold of the engine to allow the exhaust gas manifold to be communicated with the first turbine accommodating section, and a first exhaust outlet, the second supercharger is provided with a second turbine, a second turbine accommodating section which accommodates the second turbine, and a second exhaust inlet which is directly connected to the first exhaust outlet to allow the first exhaust outlet to be communicated with the second turbine accommodating section, and the second supercharger is supported by the first supercharger by placing an opening of the second exhaust inlet on an opening of the first exhaust outlet, characterized in that the first exhaust outlet extends in an axial direction of the first turbine from the first turbine accommodating section and is bent upward to upwardly open, wherein a first flange is provided in the opening of the first exhaust outlet and a second flange is provided in the opening of the second exhaust inlet, the first flange and the second flange are directly connected to each other in a state where flange surfaces are mutually horizontal, a by-pass channel is integrally formed in the first supercharger to allow the first exhaust inlet to be communicated with the second exhaust inlet by detouring around the first turbine accommodating section, an upstream end of a by-pass inlet of the by-pass channel is provided in the first turbine accommodating section, and a downstream end of a by-pass outlet of the by-pass channel is provided at the same flange surface as the first flange.
An air turbine start system, comprising: an air turbine starter comprising a rotationally mounted turbine, the air turbine starter adapted to receive pressurized air and configured, upon receipt of the pressurized air, to direct the pressurized air into the turbine to thereby cause the turbine to rotate at a rotational speed; a starter air valve in fluid communication with the air turbine starter and movable between an open position, in which the pressurized air may flow into the air turbine starter, and a closed position, in which pressurized air does not flow into the air turbine starter; a turbine speed sensor coupled to the air turbine starter, the turbine speed sensor configured to sense the rotational speed of the turbine and supply a rotational speed signal representative thereof; and a circuit coupled to receive the rotational speed signal and configured, upon receipt thereof, to determine whether the starter air valve is in the closed position or an open position. an air turbine starter comprising a rotationally mounted turbine, the air turbine starter adapted to receive pressurized air and configured, upon receipt of the pressurized air, to direct the pressurized air into the turbine to thereby cause the turbine to rotate at a rotational speed; a starter air valve in fluid communication with the air turbine starter and movable between an open position, in which the pressurized air may flow into the air turbine starter, and a closed position, in which pressurized air does not flow into the air turbine starter; a turbine speed sensor coupled to the air turbine starter, the turbine speed sensor configured to sense the rotational speed of the turbine and supply a rotational speed signal representative thereof; and a circuit coupled to receive the rotational speed signal and configured, upon receipt thereof, to determine whether the starter air valve is in the closed position or an open position.