mhurhangee/ep-ind-claims huggingface dataset:
A buckle comprising: a pair of power terminals (11, 12); an occupant detection unit configured to detect an occupant on a seat of a vehicle; and a switch configured to permit supplying power from the power terminals (11, 12) to the occupant detection unit in an unfastened state of a seat belt of the vehicle, wherein the occupant detection unit changes a current value of a current (Ia) that flows in the power terminals (11, 12), between a detected state in which the occupant is detected in the unfastened state, and a non-detected state in which the occupant is not detected in the unfastened state, wherein the switch inhibits supplying power from the power terminals (11, 12) to the occupant detection unit in a fastened state of the seat belt, to make the current value in the fastened state lower than the current value in the detected state, in which the occupant is detected in the unfastened state, and lower than the current value in the non-detected state, in which the occupant is not detected in the unfastened state. a pair of power terminals (11, 12); an occupant detection unit configured to detect an occupant on a seat of a vehicle; and a switch configured to permit supplying power from the power terminals (11, 12) to the occupant detection unit in an unfastened state of a seat belt of the vehicle, wherein the occupant detection unit changes a current value of a current (Ia) that flows in the power terminals (11, 12), between a detected state in which the occupant is detected in the unfastened state, and a non-detected state in which the occupant is not detected in the unfastened state, wherein the switch inhibits supplying power from the power terminals (11, 12) to the occupant detection unit in a fastened state of the seat belt, to make the current value in the fastened state lower than the current value in the detected state, in which the occupant is detected in the unfastened state, and lower than the current value in the non-detected state, in which the occupant is not detected in the unfastened state.
A soil recycler having a shovel housing and having a receiving opening, located on one front housing side, and having an exit opening, located on an opposed rear housing side, for material to be recycled, and having a soil recycler device which is received within the housing, wherein the soil recycler device has at least one shaft that support soil recycling means, and wherein the shaft has a middle piece and at least one end piece, the end piece being mounted in the housing, and the middle piece is retained removably in the housing, characterized in that the middle piece and the end piece, in the state in which they are built into the housing, have aligned axial inner bores (48, 50) into which a bolt, connecting the middle piece to the at least one end piece, being removal for the removal of the shaft, can be inserted from the side of the end piece facing away from the middle piece, which bolt, on its jacket face, has profiling in at least some regions which, for the sake of transmitting torque, cooperates with corresponding profiling of the inner bores (48, 50) of the middle piece and of the end piece.
A polar decoding method, comprising: obtaining a polar code sequence; determining at least one first candidate information bit length corresponding to a code length N of the polar code sequence; and decoding the polar code sequence based on blind detection by using the code length N and the at least one first candidate information bit length, wherein the at least one first candidate information bit length is a part of a preset information bit length set M corresponding to the code length N, wherein the preset information bit length set M comprises a plurality of candidate information bit lengths K, including at least one second candidate information bit length, the at least one second candidate information bit length is excluded from being decoded for its blind detection, and each second candidate information bit length is less than one or more candidate information bit lengths in the at least one first candidate information bit length, and wherein for each code length N, a subset of information bits of higher candidate information bit lengths in the preset information bit length set M is a subset of dedicated frozen bits for all lower candidate information bit lengths, and every information bit of said lower candidate information bit lengths is an information bit within said higher candidate information bit lengths. obtaining a polar code sequence; determining at least one first candidate information bit length corresponding to a code length N of the polar code sequence; and decoding the polar code sequence based on blind detection by using the code length N and the at least one first candidate information bit length, wherein the at least one first candidate information bit length is a part of a preset information bit length set M corresponding to the code length N, wherein the preset information bit length set M comprises a plurality of candidate information bit lengths K, including at least one second candidate information bit length, the at least one second candidate information bit length is excluded from being decoded for its blind detection, and each second candidate information bit length is less than one or more candidate information bit lengths in the at least one first candidate information bit length, and wherein for each code length N, a subset of information bits of higher candidate information bit lengths in the preset information bit length set M is a subset of dedicated frozen bits for all lower candidate information bit lengths, and every information bit of said lower candidate information bit lengths is an information bit within said higher candidate information bit lengths.
An indexable tangential cutting insert for a milling tool comprising: • two opposing side surfaces (13, 14) and a peripheral surface extending between said side surfaces and formed by four identical lateral surfaces, • a major edge at each intersection of a said lateral surface and a said side surface connecting opposing said lateral surfaces and having a major cutting edge extending over at least a part of the major edge, • a minor cutting edge connected to each major cutting edge by a corner cutting edge at an intersection of adjacent lateral surfaces, each said side surface (13, 14) being provided with a first support surface configured to be supported by a first support face of a pocket of a tool body of a said tool providing a radial support to the insert and each said lateral surface being provided with a second support surface configured to be supported by on one hand a corresponding second support face of a said pocket providing an axial support to the insert in two of eight index positions of the insert and on the other a corresponding third support face of a said pocket providing a tangential support to the insert in two other of said eight index positions, characterized in that each lateral surface is provided with a single said second support surface being concave as seen in a direction perpendicular to said side surfaces (13, 14) and extending, while being continuously bent in the same sense, diagonally across the lateral surface. • two opposing side surfaces (13, 14) and a peripheral surface extending between said side surfaces and formed by four identical lateral surfaces, • a major edge at each intersection of a said lateral surface and a said side surface connecting opposing said lateral surfaces and having a major cutting edge extending over at least a part of the major edge, • a minor cutting edge connected to each major cutting edge by a corner cutting edge at an intersection of adjacent lateral surfaces,
A mobile mineral material processing station comprising: a mobile platform; a frame supported by or formed by the mobile platform; supported by the frame in line: a screen; and an exit conveyor; and at least one actuator configured to tilt the screen in a first rotational direction; characterized in that the mobile mineral material processing station further comprises: a tilting mechanism (132, 134, 136, 152, 154) configured to tilt the exit conveyor, synchronized with the screen, in a second rotational direction opposite to the first rotational direction when the actuator tilts the screen in the first rotational direction. a mobile platform; a frame supported by or formed by the mobile platform; supported by the frame in line: a screen; and an exit conveyor; and at least one actuator configured to tilt the screen in a first rotational direction; characterized in that the mobile mineral material processing station further comprises: a tilting mechanism (132, 134, 136, 152, 154) configured to tilt the exit conveyor, synchronized with the screen, in a second rotational direction opposite to the first rotational direction when the actuator tilts the screen in the first rotational direction.
A magnetron comprising: an anode cylinder; a cooling block that is an integral component having an annular shape with both ends of an annular continuous part facing each other, the cooling block being fastened to an outer peripheral face of the anode cylinder to surround the anode cylinder and having a circulation passage for cooling liquid inside to cool the anode cylinder; a fastener engaged with each of the both ends of the cooling block facing each other to press an inner peripheral face of the cooling block against the outer peripheral face of the anode cylinder by tightening and narrowing a distance between the both ends; and a pair of pipe joints provided on an outer peripheral face of the cooling block and communicated with the circulation passage, wherein the fastener is disposed between the pair of pipe joints, a discontinuous part between the both ends of the cooling block facing each other extends in a tilted manner in an annular direction of the cooling block relative to a flow direction of the cooling liquid at a connecting part of the pair of pipe joints and the circulation passage, and the fastener passing the discontinuous part extends in a tilted manner relative to a face perpendicular to the flow direction of the cooling liquid at the connecting part of the pair of pipe joints and the circulation passage. an anode cylinder; a cooling block that is an integral component having an annular shape with both ends of an annular continuous part facing each other, the cooling block being fastened to an outer peripheral face of the anode cylinder to surround the anode cylinder and having a circulation passage for cooling liquid inside to cool the anode cylinder; a fastener engaged with each of the both ends of the cooling block facing each other to press an inner peripheral face of the cooling block against the outer peripheral face of the anode cylinder by tightening and narrowing a distance between the both ends; and a pair of pipe joints provided on an outer peripheral face of the cooling block and communicated with the circulation passage, wherein the fastener is disposed between the pair of pipe joints, a discontinuous part between the both ends of the cooling block facing each other extends in a tilted manner in an annular direction of the cooling block relative to a flow direction of the cooling liquid at a connecting part of the pair of pipe joints and the circulation passage, and the fastener passing the discontinuous part extends in a tilted manner relative to a face perpendicular to the flow direction of the cooling liquid at the connecting part of the pair of pipe joints and the circulation passage.
An exhaust nozzle assembly for a gas turbine engine having a centre axis, said assembly comprising: concentrically arranged inner mixer and outer exhaust nozzles, the exhaust nozzle (20, 20') extending axially downstream of said mixer nozzle (23, 23'), a centre-body (30, 30') axially mounted within and extending axially downstream from the mixer nozzle; a core flow duct (27, 27') defined by the mixer nozzle and the centre-body, the core flow duct having a core exit area (A HOT); an exhaust duct defined at least in part by the exhaust nozzle downstream of the mixer nozzle, the exhaust duct having an exhaust exit area (A 8); and an actuation mechanism; wherein the mixer nozzle (23, 23') comprises a mixer cowl (29, 29') which defines the core exit area and is axially-translatable along the centre axis and wherein the exhaust nozzle comprises an exhaust cowl (26, 26') which defines the exhaust exit area and is either axially-translatable along or angularly-adjustable relative to the centre axis; and wherein the mixer cowl and exhaust cowl are movable by the actuation mechanism between a first position in which the core exit area and exhaust exit area are maximum and a second position in which the core exit area and exhaust exit area are minimum. concentrically arranged inner mixer and outer exhaust nozzles, the exhaust nozzle (20, 20') extending axially downstream of said mixer nozzle (23, 23'), a centre-body (30, 30') axially mounted within and extending axially downstream from the mixer nozzle; a core flow duct (27, 27') defined by the mixer nozzle and the centre-body, the core flow duct having a core exit area (A HOT); an exhaust duct defined at least in part by the exhaust nozzle downstream of the mixer nozzle, the exhaust duct having an exhaust exit area (A 8); and an actuation mechanism; wherein the mixer nozzle (23, 23') comprises a mixer cowl (29, 29') which defines the core exit area and is axially-translatable along the centre axis and wherein the exhaust nozzle comprises an exhaust cowl (26, 26') which defines the exhaust exit area and is either axially-translatable along or angularly-adjustable relative to the centre axis; and wherein the mixer cowl and exhaust cowl are movable by the actuation mechanism between a first position in which the core exit area and exhaust exit area are maximum and a second position in which the core exit area and exhaust exit area are minimum.
A linear pipe tensioner comprising: a frame; a first track assembly secured to the frame and having a first track operatively associated with two first track axles (41, 42), the first track comprising a first gripping pad, the first gripping pad having a first compliant member having a plurality of slots, and a plurality of gripping members disposed on a first gripping member plate and within the respective plurality of slots; and a second track assembly secured to the frame and having a second track operatively associated with two second track axles (21, 22), wherein the second track assembly is secured to the frame spaced from the first track to define a pathway between the first track and the second track for receiving a pipe, wherein each gripping member of the plurality of gripping members has a rectangular shape, and wherein each gripping member of the plurality of gripping members is disposed within the respective plurality of the slots at a non-right angle relative to a longitudinal surface and a lateral surface of the gripping member plate. a frame; a first track assembly secured to the frame and having a first track operatively associated with two first track axles (41, 42), the first track comprising a first gripping pad, the first gripping pad having a first compliant member having a plurality of slots, and a plurality of gripping members disposed on a first gripping member plate and within the respective plurality of slots; and a second track assembly secured to the frame and having a second track operatively associated with two second track axles (21, 22), wherein the second track assembly is secured to the frame spaced from the first track to define a pathway between the first track and the second track for receiving a pipe,
A process comprising: supplying a hydrocarbon feed and a steam feed into a syngas producing unit comprising a reforming reactor under syngas producing conditions to produce a reformed stream exiting the reforming reactor, wherein the syngas producing conditions include the presence of a reforming catalyst, and the reformed stream comprises H 2, CO, and steam; cooling the reformed stream by using a waste heat recovery unit ("WHRU") to produce a cooled reformed stream and to generate a high-pressure steam ("HPS") stream; heating the HPS stream to obtain a super-heated high-pressure steam ("SH-HPS") stream, wherein the SH-HPS stream has a pressure higher than a pressure of the steam feed supplied to the syngas producing unit in step; expanding at least a portion of the SH-HPS stream in at least one steam turbine to produce shaft power and an expanded steam stream having a pressure equal to or higher than the steam feed, wherein the at least one steam turbine is located in a hydrocarbon production plant, wherein the hydrocarbon production plant is an olefins production plant and the shaft power produced in step drives an equipment located in the olefins production plant; and supplying at least a portion of the expanded steam stream as the steam feed in step. supplying a hydrocarbon feed and a steam feed into a syngas producing unit comprising a reforming reactor under syngas producing conditions to produce a reformed stream exiting the reforming reactor, wherein the syngas producing conditions include the presence of a reforming catalyst, and the reformed stream comprises H 2, CO, and steam; cooling the reformed stream by using a waste heat recovery unit ("WHRU") to produce a cooled reformed stream and to generate a high-pressure steam ("HPS") stream; heating the HPS stream to obtain a super-heated high-pressure steam ("SH-HPS") stream, wherein the SH-HPS stream has a pressure higher than a pressure of the steam feed supplied to the syngas producing unit in step; expanding at least a portion of the SH-HPS stream in at least one steam turbine to produce shaft power and an expanded steam stream having a pressure equal to or higher than the steam feed, wherein the at least one steam turbine is located in a hydrocarbon production plant, wherein the hydrocarbon production plant is an olefins production plant and the shaft power produced in step drives an equipment located in the olefins production plant; and supplying at least a portion of the expanded steam stream as the steam feed in step.
Method for producing a welded structural link between a thermoplastic matrix composite material and an elastomer, comprising the following operations: a first operation of functionalising the elastomeric material by incorporating into the green elastomeric material a given proportion of powder of a thermoplastic material, the functionalising being carried out by forming a thin layer of green elastomeric material integrating a proportion of thermoplastic material powder and melting of said layer with a main layer of elastomeric material during an operation of pressure-vulcanising said elastomeric material; a second welding operation per se, during which the welding of the thermoplastic composite material to the functionalised layer of the elastomeric material is carried out. a first operation of functionalising the elastomeric material by incorporating into the green elastomeric material a given proportion of powder of a thermoplastic material, the functionalising being carried out by forming a thin layer of green elastomeric material integrating a proportion of thermoplastic material powder and melting of said layer with a main layer of elastomeric material during an operation of pressure-vulcanising said elastomeric material; a second welding operation per se, during which the welding of the thermoplastic composite material to the functionalised layer of the elastomeric material is carried out.
Method for cutting to length a tube section from a tube, which tube comprises an inner tube and an outer tube casing surrounding the inner tube, wherein, with the aid of a cutting tool, the tube section is cut off from the tube at a cutting point in a cutting plane oriented transversely to the longitudinal extension of the tube, wherein the tube casing of the tube is enclosed by means of a tube fixing piece which can be cut through and which covers the provided cutting point before the tube section is cut off from the tube at the cutting point with the aid of the cutting tool, wherein the tube fixing piece completely surrounds the outer tube casing in the peripheral direction, and wherein the tube fixing piece is so fixed on the tube casing and/or the tube surrounded by the tube fixing piece is so cut through with the aid of the cutting tool that a relative displacement of the tube fixing piece with respect to the tube casing or of the tube casing with respect to the inner tube is prevented, characterised in that the tube fixing piece formed as a single-sided adhesive tape has a middle piece completely surrounding the tube and adjoined by tube fixing end pieces (7, 8) on both sides, that the tube fixing end pieces (7, 8) lie with their adhesive surfaces against one another and that the tube fixing end pieces (7, 8), which lie with their adhesive surfaces against one another, are placed against the tube such that the adhesive surface of one of the tube fixing end pieces (7, 8) is adhesively held with a partial region protruding over the other tube fixing end piece (7, 8) against the tube or against the tube section.
Laser welding method for joining a non-sintered material with a sintered material, comprising the following steps: - providing a first component made of a non-sintered material, providing a second component made of a sintered material, - arranging the first component and the second component along a contact plane to create a joint, - applying a laser beam to a first joining region of the first component in the region of the joint in order to melt the first joining region into a molten mass, and - cooling the joint, characterized by - melting a second joining region of the second component in the region of the joint by means of the molten mass of the first joining region. - providing a first component made of a non-sintered material, providing a second component made of a sintered material, - arranging the first component and the second component along a contact plane to create a joint, - applying a laser beam to a first joining region of the first component in the region of the joint in order to melt the first joining region into a molten mass, and - cooling the joint, characterized by - melting a second joining region of the second component in the region of the joint by means of the molten mass of the first joining region.
Machine for preparing beverages comprising a frame, a support for a recipient and means for displacing said support configured to pivot it to a position for receiving the recipient or to a storage position according to which said support is positioned along the frame, characterised in that the means for displacing comprise a manoeuvring member separate from the support for a recipient and assembled to the support for a recipient, said manoeuvring member being mounted as a pivot connection on the frame in such a way that the rotation of the manoeuvring member between a first position and a second position allows for the switching of the support for a recipient from the position for receiving to the storage position, and inversely, the manoeuvring member being a lever or a control button.