mhurhangee/ep-ind-claims huggingface dataset:
A cooling system for a shafting of a wind turbine, the shafting comprising a stationary shaft, a rotating shaft, and a bearing provided between the stationary shaft and the rotating shaft, the bearing comprising an outer ring, rollers and an inner ring, the outer ring being connected to the stationary shaft, and the inner ring being connected to the rotating shaft, wherein the cooling system comprises: a cold air supply unit; and a rotating-shaft air blow box, wherein the rotating-shaft air blow box is mountable on an inner surface of the stationary shaft and is in a shape of a circular ring-shaped box, a plurality of first air blow openings are uniformly distributed in a surface, facing the rotating shaft, of the rotating-shaft air blow box in a circumferential direction, to blow cold air from the cold air supply unit to the rotating shaft, and wherein each of the plurality of the first air blow openings is in a shape of a slit, to form a jet. a cold air supply unit; and a rotating-shaft air blow box, wherein the rotating-shaft air blow box is mountable on an inner surface of the stationary shaft and is in a shape of a circular ring-shaped box, a plurality of first air blow openings are uniformly distributed in a surface, facing the rotating shaft, of the rotating-shaft air blow box in a circumferential direction, to blow cold air from the cold air supply unit to the rotating shaft, and wherein each of the plurality of the first air blow openings is in a shape of a slit, to form a jet.
Electrical connector for a coaxial cable, comprising: a core wire conduction terminal, connectable to a core wire exposed from a terminal end of a shield wire, an insulating member, which holds the core wire conduction terminal in a state contained therein, a shield terminal, which is connectable to the shield wire by caulking a shield conductor that is positioned around a sheath of the shield wire, and at the same time, holds the insulating member by caulking the insulating member, the shield terminal is provided with a pair of crimping barrel parts, characterized in that the insulating member is provided with two flanges (30A, 30B) protruding from its outer periphery along a circumferential direction, interposing a determined distance in a longitudinal direction, the crimping barrel parts are erected so as to clamp the outer periphery of the insulating member, for caulking a region of the insulating member interposed between the two flanges (30A, 30B), each of the crimping barrel parts is provided with a butting face (44H, 44I) which is opposed to one of the two flanges (30A, 30B) when the crimping barrel part is folded, at its one end, and an inclined face (44F, 44G), at the other end at an opposite side to the butting face (44H, 44I), the inclined face comes into sliding contact with the inclined face of the other crimping barrel part when the crimping barrel parts (44, 44) are folded, and the inclined face is inclined to extend in a direction perpendicular to a direction where the crimping barrel parts (44, 44) are folded. a core wire conduction terminal, connectable to a core wire exposed from a terminal end of a shield wire, an insulating member, which holds the core wire conduction terminal in a state contained therein, a shield terminal, which is connectable to the shield wire by caulking a shield conductor that is positioned around a sheath of the shield wire, and at the same time, holds the insulating member by caulking the insulating member, the shield terminal is provided with a pair of crimping barrel parts, the insulating member is provided with two flanges (30A, 30B) protruding from its outer periphery along a circumferential direction, interposing a determined distance in a longitudinal direction, the crimping barrel parts are erected so as to clamp the outer periphery of the insulating member, for caulking a region of the insulating member interposed between the two flanges (30A, 30B), each of the crimping barrel parts is provided with a butting face (44H, 44I) which is opposed to one of the two flanges (30A, 30B) when the crimping barrel part is folded, at its one end, and an inclined face (44F, 44G), at the other end at an opposite side to the butting face (44H, 44I), the inclined face comes into sliding contact with the inclined face of the other crimping barrel part when the crimping barrel parts (44, 44) are folded, and the inclined face is inclined to extend in a direction perpendicular to a direction where the crimping barrel parts (44, 44) are folded.
An automobile hood, comprising: a panel, a reinforcing member, and a joint that joins together the panel and the reinforcing member, wherein: the reinforcing member includes a structure in which a plurality of units having a hexagonal annular shape are disposed in a close-packed arrangement; the unit has a floor, an inclined wall, and a top plate; the floor is adjacent to the panel; the top plate and the panel are separated from each other; the inclined wall is arranged between the floor and the top plate; a ridge line having a hexagonal annular shape of the unit is between the inclined wall and the floor; the floor has an annular end part which is centered on the center of the annular unit; and a length of one side of the ridge line having the hexagonal annular shape is 40 mm or more and 75 mm or less. a panel, a reinforcing member, and a joint that joins together the panel and the reinforcing member, wherein: the reinforcing member includes a structure in which a plurality of units having a hexagonal annular shape are disposed in a close-packed arrangement; the unit has a floor, an inclined wall, and a top plate; the floor is adjacent to the panel; the top plate and the panel are separated from each other; the inclined wall is arranged between the floor and the top plate; a ridge line having a hexagonal annular shape of the unit is between the inclined wall and the floor; the floor has an annular end part which is centered on the center of the annular unit; and a length of one side of the ridge line having the hexagonal annular shape is 40 mm or more and 75 mm or less. the reinforcing member includes a structure in which a plurality of units having a hexagonal annular shape are disposed in a close-packed arrangement; the unit has a floor, an inclined wall, and a top plate; the floor is adjacent to the panel; the top plate and the panel are separated from each other; the inclined wall is arranged between the floor and the top plate; a ridge line having a hexagonal annular shape of the unit is between the inclined wall and the floor; the floor has an annular end part which is centered on the center of the annular unit; and a length of one side of the ridge line having the hexagonal annular shape is 40 mm or more and 75 mm or less.
A panel provided with a panel mounting hole and a grommet (1, 50) mounted on said panel mounting hole, said grommet (1, 50) including a grommet main body (11, 51) in which an electrical wire insertion hole (12, 52) through which an electric wire can be inserted is provided and in which an annular seal portion (13, 53) for abutting against an opening edge of the panel mounting hole is provided, wherein the annular seal portion (13. 53) includes an inner side annular supporting portion (17, 57), an outer side annular supporting portion (18, 58) integrally formed with the grommet main body (11, 51) at an outer circumference of the inner side annular supporting portion (17, 57) and an arc-shaped abutting portion (16, 56) formed so as arcuately to connect tips of the inner side annular supporting portion (17, 57) and the outer side annular supporting portion (18, 58) and for abutting against the opening edge of the panel mounting hole, and wherein the arc-shaped abutting portion (16, 56) is linearly bent and deformed so that an arc-shaped portion of the arc-shaped abutting portion (16, 56) is in surface contact with the panel, characterized in that a thickness of the arc-shaped abutting portion (16, 56) is constituted so as to be thinner than a thickness (H, I) of the inner side annular supporting portion (17, 57) and the outer side annular supporting portion (18, 58).
Process for the selective recovery of transition metals M comprising Ni from starting materials in aqueous solution, said solution also containing Li, comprising the steps of: - crystallizing Ni by conditioning the solution to reach an acidity A, expressed in g/L of sulfuric acid, at a temperature T, expressed in degrees Celsius, according to the formula A ≥ 1100 - 6.7 * T, with T between 45 °C and the boiling point of the solution, thereby obtaining a mixture of solid and liquid reaction products; and, - solid/liquid separation of the reaction products, thereby obtaining a solid residue comprising the major part of the Ni entering the process, as a hydrated nickel sulfate, and an effluent solution comprising the major part of the Li entering the process. - crystallizing Ni by conditioning the solution to reach an acidity A, expressed in g/L of sulfuric acid, at a temperature T, expressed in degrees Celsius, according to the formula A ≥ 1100 - 6.7 * T, with T between 45 °C and the boiling point of the solution, thereby obtaining a mixture of solid and liquid reaction products; and, - solid/liquid separation of the reaction products, thereby obtaining a solid residue comprising the major part of the Ni entering the process, as a hydrated nickel sulfate, and an effluent solution comprising the major part of the Li entering the process.
Aircraft engine with a fuel supply device and with at least one hydraulic fluid circuit which comprises a hydraulic fluid accumulator, and with a heat exchanger, in the region of which thermal energy can be exchanged between the hydraulic fluid which is conducted in the hydraulic fluid circuit and fuel of the fuel supply device, the pressure in the hydraulic fluid circuit in the region of the heat exchanger during operation being greater than the pressure in the fuel supply device, characterized in that the heat exchanger is connected to the hydraulic fluid accumulator, wherein outer walls of the heat exchanger and outer walls of the hydraulic fluid accumulator shield at least partially an overlapping region between the heat exchanger and the hydraulic fluid accumulator with respect to a surrounding area of the heat exchanger and the hydraulic fluid accumulator.
A method for monitoring the integrity of a connection system between first and second fluid containing systems, wherein the first fluid containing system comprises a first pulse generator, and the second fluid containing system comprises a second pulse generator, and wherein at least one pressure sensor (4a-4c) is arranged in the first fluid containing system to detect first pulses originating from the first pulse generator and second pulses originating from the second pulse generator, said method comprising: generating a time-dependent monitoring signal based on measurement data obtained from said at least one pressure sensor (4a-4c); processing the monitoring signal to calculate a parameter value; and determining the integrity of the connection system based at least partly on the parameter value, said method being characterized in that the monitoring signal is generated such that the monitoring signal contains a sequence of apparent pulses, said apparent pulses representing a superposition of the second pulses on the first pulses when the connection system is intact, and in that the parameter value is calculated based on a pulse feature of at least one of the apparent pulses in the monitoring signal, the parameter value representing a disturbance caused by the superposition of the second pulses on the first pulses. generating a time-dependent monitoring signal based on measurement data obtained from said at least one pressure sensor (4a-4c); processing the monitoring signal to calculate a parameter value; and determining the integrity of the connection system based at least partly on the parameter value, said method being characterized in that the monitoring signal is generated such that the monitoring signal contains a sequence of apparent pulses, said apparent pulses representing a superposition of the second pulses on the first pulses when the connection system is intact, and in that the parameter value is calculated based on a pulse feature of at least one of the apparent pulses in the monitoring signal, the parameter value representing a disturbance caused by the superposition of the second pulses on the first pulses.
An isolated monoclonal antibody or an antigen-binding fragment thereof that binds specifically to leukocyte immunoglobulin-like receptor subfamily B member 4 (LILRB4) comprising: (a) a heavy chain variable region comprising: a heavy chain complementarity determining region (HC-CDR) 1 having the amino acid sequence set forth in SEQ ID NO: 100, a HC-CDR2 having the amino acid sequence set forth in SEQ ID NO: 101, and a HC-CDR3 having the amino acid sequence set forth in SEQ ID NO: 102, 224 or 227; and (b) a light chain variable region comprising: a light chain complementarity determining region (LC-CDR) having the amino acid sequence set forth in SEQ ID NO: 104, a LC-CDR2 having the amino acid sequence of KAS or set forth in SEQ ID NO: 233, and a LC-CDR3 having the amino acid sequence set forth in SEQ ID NO: 105 or 234. (a) a heavy chain variable region comprising: a heavy chain complementarity determining region (HC-CDR) 1 having the amino acid sequence set forth in SEQ ID NO: 100, a HC-CDR2 having the amino acid sequence set forth in SEQ ID NO: 101, and a HC-CDR3 having the amino acid sequence set forth in SEQ ID NO: 102, 224 or 227; and a heavy chain complementarity determining region (HC-CDR) 1 having the amino acid sequence set forth in SEQ ID NO: 100, a HC-CDR2 having the amino acid sequence set forth in SEQ ID NO: 101, and a HC-CDR3 having the amino acid sequence set forth in SEQ ID NO: 102, 224 or 227; and (b) a light chain variable region comprising: a light chain complementarity determining region (LC-CDR) having the amino acid sequence set forth in SEQ ID NO: 104, a LC-CDR2 having the amino acid sequence of KAS or set forth in SEQ ID NO: 233, and a LC-CDR3 having the amino acid sequence set forth in SEQ ID NO: 105 or 234. a light chain complementarity determining region (LC-CDR) having the amino acid sequence set forth in SEQ ID NO: 104, a LC-CDR2 having the amino acid sequence of KAS or set forth in SEQ ID NO: 233, and a LC-CDR3 having the amino acid sequence set forth in SEQ ID NO: 105 or 234.
A rotating electrical machine comprising: a rotatable shaft; a rotor assembly concentric with the rotatable shaft and having a first end and a second end; and a viscous torsional vibration damper that employs a viscous working fluid to provide mechanical damping, the torsional vibration damper including a damper having a primary member being mounted to the rotatable shaft and a secondary member elastically connected to the primary member by one or more spring sets and being mounted to the first end of the rotor assembly, the primary member being further adapted to be mounted to a driving shaft of a prime mover or a driven load, optionally by means of a coupling, characterized in that the rotor assembly is not fixedly mounted directly to the rotatable shaft such that torsional vibrations between the rotatable shaft and the rotor assembly are damped by the damper. a rotatable shaft; a rotor assembly concentric with the rotatable shaft and having a first end and a second end; and a viscous torsional vibration damper that employs a viscous working fluid to provide mechanical damping, the torsional vibration damper including a damper having a primary member being mounted to the rotatable shaft and a secondary member elastically connected to the primary member by one or more spring sets and being mounted to the first end of the rotor assembly, the primary member being further adapted to be mounted to a driving shaft of a prime mover or a driven load, optionally by means of a coupling, characterized in that the rotor assembly is not fixedly mounted directly to the rotatable shaft such that torsional vibrations between the rotatable shaft and the rotor assembly are damped by the damper.
A hollow crankshaft for IC engines comprising: - a plurality of main bearing journals and crank pin journals both constituted from hollow section; - a plurality of flanges configured with a blind counter bore for accommodating said main bearing journal and a counter hole for accommodating crank pin journal, one through hole in counter hole for crank pin journals and one through hole connecting said main bearing journals and crank pin journals; - at least one hole provided on each of said main bearing journals and crank pin journals for providing oil through it for lubrication; - at least one arrangement provided on crankshaft for restraining oil drain from the crankshaft when not in operation; and - at least one lid provided on through hole drilled from counter bore for crank pin journal, wherein assembly of said main bearing journal and crank pin journal to their respective counter bores in said flanges is configured to increase the circumferential surface area of contact between said main bearing journal and crank pin journal and their respective counter bores for distribution of stress to said circumferential surface area of contact, thereby avoiding critical loading of crank shaft at fillet radii. - a plurality of main bearing journals and crank pin journals both constituted from hollow section; - a plurality of flanges configured with a blind counter bore for accommodating said main bearing journal and a counter hole for accommodating crank pin journal, one through hole in counter hole for crank pin journals and one through hole connecting said main bearing journals and crank pin journals; - at least one hole provided on each of said main bearing journals and crank pin journals for providing oil through it for lubrication; - at least one arrangement provided on crankshaft for restraining oil drain from the crankshaft when not in operation; and - at least one lid provided on through hole drilled from counter bore for crank pin journal,
A multilink-based data transmission method, by comprising: translating, by a first device, a target packet into a target packet with a public IP address; establishing (101, 201) separately, by the first device, first tunnels in multiple different types of links in which the first device and a second device have established a communication connection; establishing (102, 202), by the first device, a second tunnel that crosses the first tunnels established in the multiple different types of links; analyzing (103, 203), by the first device, a load state of each first tunnel crossed by the second tunnel, and selecting, on the basis of the load state analysis, a first tunnel used to transmit a target packet; and encapsulating, by the first device, the target packet into the second tunnel, and sending, to the second device, through the first tunnel used to transmit the target packet, the packet encapsulated into the second tunnel, wherein the sending, to the second device, through the first tunnel used to transmit the target packet, the packet encapsulated into the second tunnel comprises: encapsulating, by the first device, into the first tunnel used to transmit the target packet, the packet encapsulated into the second tunnel, and sending, to the second device through the first tunnel, the packet that is encapsulated into the first tunnel used to transmit the target packet. translating, by a first device, a target packet into a target packet with a public IP address; establishing (101, 201) separately, by the first device, first tunnels in multiple different types of links in which the first device and a second device have established a communication connection; establishing (102, 202), by the first device, a second tunnel that crosses the first tunnels established in the multiple different types of links; analyzing (103, 203), by the first device, a load state of each first tunnel crossed by the second tunnel, and selecting, on the basis of the load state analysis, a first tunnel used to transmit a target packet; and encapsulating, by the first device, the target packet into the second tunnel, and sending, to the second device, through the first tunnel used to transmit the target packet, the packet encapsulated into the second tunnel, wherein the sending, to the second device, through the first tunnel used to transmit the target packet, the packet encapsulated into the second tunnel comprises: encapsulating, by the first device, into the first tunnel used to transmit the target packet, the packet encapsulated into the second tunnel, and sending, to the second device through the first tunnel, the packet that is encapsulated into the first tunnel used to transmit the target packet.
A method of positioning a target user equipment, comprising: receiving, by a network entity, at least one measurement report request from a location management function comprising a list of at least one transmission reception point identifier from which measurements of uplink reference signals are requested, wherein the location management function manages location service for a target user equipment; determining, by the network entity, to modify at least one transmission reception point identifier in the transmission reception point measurement request list based at least in part on the at least one measurement report request; and transmitting, by the network entity, at least one measurement response to the location management function comprising a transmission reception point measurement response list of at least one transmission reception point identifier from which measurements are performed, wherein the transmission reception point measurement response list is different than the transmission reception point measurement request list; the method being characterized in that the at least one measurement report request further comprises one indication that the network entity is allowed to modify the transmission reception point measurement request list and at least one transmission reception point modification rule configured to control by the location management function at least one modification by the network entity of at least one transmission reception point identifier. receiving, by a network entity, at least one measurement report request from a location management function comprising a list of at least one transmission reception point identifier from which measurements of uplink reference signals are requested, wherein the location management function manages location service for a target user equipment; determining, by the network entity, to modify at least one transmission reception point identifier in the transmission reception point measurement request list based at least in part on the at least one measurement report request; and transmitting, by the network entity, at least one measurement response to the location management function comprising a transmission reception point measurement response list of at least one transmission reception point identifier from which measurements are performed, wherein the transmission reception point measurement response list is different than the transmission reception point measurement request list;