mhurhangee/ep-ind-claims huggingface dataset:
A disposable cigarette cartridge detachably connectable with an atomizing core, which comprises an ultrasonic atomizing sheet, the disposable cigarette cartridge comprising a hollow shell, a tobacco tar storage device located in the shell, a suction nozzle connected with the upper end of the shell, a tobacco tar guide seat connected with the lower end of the shell, and a tobacco tar guide body installed on the tobacco tar guide seat; the tobacco tar guide body extends into the tobacco tar storage device; and an air passage is arranged in the shell, one end of the air passage is communicated with the suction nozzle, and the other end of the air passage is communicated with a heating surface of the tobacco tar guide body; the disposable cigarette cartridge further comprises a tobacco tar bead blocking structure, wherein the tobacco tar bead blocking structure props against one surface of the tobacco tar guide body away from the ultrasonic atomizing sheet when the disposable cigarette cartridge is connected with the atomizing core; the tobacco tar bead blocking structure comprises a tower-shaped spring, a pitch value of the tower-shaped spring is less than or equal to a line diameter value of the tower-shaped spring, the tower-shaped spring is located on one side where the atomizing surface of the ultrasonic atomizing sheet is located, when the disposable cigarette cartridge is connected with the atomizing core, and the axis of the tower-shaped spring is vertical to the ultrasonic atomizing sheet. the tobacco tar guide body extends into the tobacco tar storage device; and an air passage is arranged in the shell, one end of the air passage is communicated with the suction nozzle, and the other end of the air passage is communicated with a heating surface of the tobacco tar guide body; the disposable cigarette cartridge further comprises a tobacco tar bead blocking structure, wherein the tobacco tar bead blocking structure props against one surface of the tobacco tar guide body away from the ultrasonic atomizing sheet when the disposable cigarette cartridge is connected with the atomizing core; the tobacco tar bead blocking structure comprises a tower-shaped spring, a pitch value of the tower-shaped spring is less than or equal to a line diameter value of the tower-shaped spring, the tower-shaped spring is located on one side where the atomizing surface of the ultrasonic atomizing sheet is located, when the disposable cigarette cartridge is connected with the atomizing core, and the axis of the tower-shaped spring is vertical to the ultrasonic atomizing sheet.
A method of nondestructively detecting a structural defect in a surface of an irradiated material comprising the steps of: applying a mixture of a noncorrosive crack penetrant including chemical species that have relatively large cross-sections for fast neutron induced prompt gamma emission interactions of a defined energy, such as those containing Nitrogen, Scandium, Titanium, Manganese, or Vanadium, to the surface of the material to be examined; irradiating the surface of the material with a neutron pulse generator; positioning a plurality of beta radiation detectors, each beta radiation detector comprising an active region and a sacrificial material layer and being tuned to the defined energy of photo-electrically produced electrons generated in the sacrificial material layer located between the active region of the detector and the surface being examined, in a regular pattern over the surface of the material to which the mixture is applied, the plurality of beta radiation detectors respectively providing an output indicative of a reception of the prompt gamma release of the defined energy in an area of the surface viewed by a corresponding one of the beta radiation detectors; and employing the receptions to map a characteristic of the defect. applying a mixture of a noncorrosive crack penetrant including chemical species that have relatively large cross-sections for fast neutron induced prompt gamma emission interactions of a defined energy, such as those containing Nitrogen, Scandium, Titanium, Manganese, or Vanadium, to the surface of the material to be examined; irradiating the surface of the material with a neutron pulse generator; positioning a plurality of beta radiation detectors, each beta radiation detector comprising an active region and a sacrificial material layer and being tuned to the defined energy of photo-electrically produced electrons generated in the sacrificial material layer located between the active region of the detector and the surface being examined, in a regular pattern over the surface of the material to which the mixture is applied, the plurality of beta radiation detectors respectively providing an output indicative of a reception of the prompt gamma release of the defined energy in an area of the surface viewed by a corresponding one of the beta radiation detectors; and employing the receptions to map a characteristic of the defect.
A capture device for unmanned aerial vehicles, comprising: at least one support having an upright portion and at least one boom portion; a carriage track carried by the at least one boom portion; a carriage carried by and movable along the carriage track; a flexible capture line carried by and extending downwardly from the at least one boom portion, or the carriage, or both the at least one boom portion and the carriage; and a releasable restraint device coupled to the capture line and positioned to allow motion of the capture line in a first direction as the unmanned aircraft decelerates during a capture operation and to prevent motion of the capture line in a second direction opposite the first direction; wherein the releasable restraint device is carried by and movable with the carriage. at least one support having an upright portion and at least one boom portion; a carriage track carried by the at least one boom portion; a carriage carried by and movable along the carriage track; a flexible capture line carried by and extending downwardly from the at least one boom portion, or the carriage, or both the at least one boom portion and the carriage; and a releasable restraint device coupled to the capture line and positioned to allow motion of the capture line in a first direction as the unmanned aircraft decelerates during a capture operation and to prevent motion of the capture line in a second direction opposite the first direction; wherein the releasable restraint device is carried by and movable with the carriage.
Slotted channel comprising a chamfered channel profile which has a channel body widened with respect to a slot-like channel opening and receiving limbs for a floor covering which protrude laterally from the slotted walls defining the channel opening, characterised in that the channel top formed by an inwardly directed chamfering of the longitudinal walls of the channel body forms the receiving limbs, from which the chamfered slotted walls rise up, and in that passage openings for seeping liquid are provided in the receiving limbs.
A method for real-time monitoring of stress changes in an excavation, such as in a mine or a tunnel, the method comprising: - determining strain data of the excavation by at least six strain measurement devices (15, 25; 15A-15C), wherein the strain measurement devices (15, 25; 15A-15C) are arranged surrounding the excavation to determine the strain data along different directions with respect to each other, and wherein: none of said different directions is parallel relative to any other of said directions, and/or the at least six strain measurement devices (15, 25; 15A-15C) form two sets (15, 25) of three measurement devices (15A-15C) arranged in opposite directions with respect to a longitudinal direction of the excavation, wherein one of the two sets (15, 25) is arranged to deviate from a perpendicular plane relative to the longitudinal direction of the excavation and into one side of the plane, and the other of the two sets (15, 25) is arranged to deviate from the perpendicular plane relative to the longitudinal direction of the excavation and into the other side of the plane, - receiving the determined strain data on a processing unit arranged in connection with the strain measurement devices (15, 25; 15A-15C), and - back-calculating, by the processing unit, a three-dimensional stress change as a tensor based on the received strain data, and on strain components determined based on pre-determined unit loads with respect to said directions and on corresponding loading factors. - determining strain data of the excavation by at least six strain measurement devices (15, 25; 15A-15C), wherein the strain measurement devices (15, 25; 15A-15C) are arranged surrounding the excavation to determine the strain data along different directions with respect to each other, and wherein: none of said different directions is parallel relative to any other of said directions, and/or the at least six strain measurement devices (15, 25; 15A-15C) form two sets (15, 25) of three measurement devices (15A-15C) arranged in opposite directions with respect to a longitudinal direction of the excavation, wherein one of the two sets (15, 25) is arranged to deviate from a perpendicular plane relative to the longitudinal direction of the excavation and into one side of the plane, and the other of the two sets (15, 25) is arranged to deviate from the perpendicular plane relative to the longitudinal direction of the excavation and into the other side of the plane, - receiving the determined strain data on a processing unit arranged in connection with the strain measurement devices (15, 25; 15A-15C), and - back-calculating, by the processing unit, a three-dimensional stress change as a tensor based on the received strain data, and on strain components determined based on pre-determined unit loads with respect to said directions and on corresponding loading factors.
A cooking device comprising: a frame to form a cooking chamber; a burner cover provided in the frame to form a combustion chamber and including an opening (142, 162) for flowing air, the burner cover comprising a first cover covering a front of the burner and a second cover covering a rear of the burner; a burner provided inside the combustion chamber, the burner and the burner cover being installed at a rear wall of the frame; and a barrier member provided between the burner cover and the rear wall of the frame in order to prevent heat of air discharged from the combustion chamber from being delivered to the rear wall of the frame characterized in that the_barrier member is further configured to block or reduce heat generated by the burner or air heated by the burner from being delivered to the rear wall of the frame. a frame to form a cooking chamber; a burner cover provided in the frame to form a combustion chamber and including an opening (142, 162) for flowing air, the burner cover comprising a first cover covering a front of the burner and a second cover covering a rear of the burner; a burner provided inside the combustion chamber, the burner and the burner cover being installed at a rear wall of the frame; and a barrier member provided between the burner cover and the rear wall of the frame in order to prevent heat of air discharged from the combustion chamber from being delivered to the rear wall of the frame characterized in that the_barrier member is further configured to block or reduce heat generated by the burner or air heated by the burner from being delivered to the rear wall of the frame.
A magnetically-levitated blood pump, said blood pump comprising: an inflow end providing for entry of blood; an outflow end providing for exit of said blood; a stator oriented in axial alignment with, and located between, said inflow end and said outflow end, and including a plurality of stator permanent magnets (121a, 121b, 121c, 121d), a motor coil and at least one voice coil (129a, 129b); a rotor centered within said stator, and including a plurality of rotor permanent magnets (68a, 68b, 68c, 68d, 69a, 69b, 70, 71, 72, 73); a first permanent magnet bearing (68a, 68b, 121a, 121b) near the inflow end to radially stabilize and center the rotor, the first permanent magnet bearing formed from a first portion of said stator permanent magnets and a first corresponding portion of said rotor permanent magnets; a second permanent magnet bearing (68c, 68d, 121c, 121d) near the outflow end to radially stabilize and center the rotor, the second permanent magnet bearing formed from a second portion of the stator permanent magnets and a second corresponding portion of the rotor permanent magnets; a motor magnet for interaction with said motor coil, and formed from a third corresponding portion of said rotor permanent magnets; a fourth corresponding portion of the rotor permanent magnets (71, 72, 73) for interaction with the at least one voice coil; and an annular blood gap formed between an outermost surface of said rotor and an innermost surface of said stator, where a ratio of said annular blood gap to rotor diameter is greater than 1/10. an inflow end providing for entry of blood; an outflow end providing for exit of said blood; a stator oriented in axial alignment with, and located between, said inflow end and said outflow end, and including a plurality of stator permanent magnets (121a, 121b, 121c, 121d), a motor coil and at least one voice coil (129a, 129b); a rotor centered within said stator, and including a plurality of rotor permanent magnets (68a, 68b, 68c, 68d, 69a, 69b, 70, 71, 72, 73); a first permanent magnet bearing (68a, 68b, 121a, 121b) near the inflow end to radially stabilize and center the rotor, the first permanent magnet bearing formed from a first portion of said stator permanent magnets and a first corresponding portion of said rotor permanent magnets; a second permanent magnet bearing (68c, 68d, 121c, 121d) near the outflow end to radially stabilize and center the rotor, the second permanent magnet bearing formed from a second portion of the stator permanent magnets and a second corresponding portion of the rotor permanent magnets; a motor magnet for interaction with said motor coil, and formed from a third corresponding portion of said rotor permanent magnets; a fourth corresponding portion of the rotor permanent magnets (71, 72, 73) for interaction with the at least one voice coil; and an annular blood gap formed between an outermost surface of said rotor and an innermost surface of said stator, where a ratio of said annular blood gap to rotor diameter is greater than 1/10.
A T cell receptor having the property of binding to GVYDGREHTV (SEQ ID No: 1) in complex with HLA-A*0201 with a dissociation constant of from about 0.05 μM to about 20.0 μM when measured with surface plasmon resonance at 25°C and at a pH between 7.1 and 7.5 using a soluble form of the TCR, and has at least a ten-fold selectivity of binding to SEQ ID No:1 in complex with HLA-A*0201 over binding to GVYDGEEHSV (SEQ ID No 2) in complex with HLA-A*0201 wherein the TCR comprises a TCR alpha chain variable domain and a TCR beta chain variable domain, and wherein the TCR variable domains form contacts with at least residues V2, Y3 and D4 of GVYDGREHTV (SEQ ID No: 1).
Self-aligning roller (25, 26, 36, 60) for a centrifugal force pendulum device with at least one pendulum mass (11, 12, 13, 14, 84, 86) and a pendulum mass carrier part (2, 88) having a self-aligning roller rotational axis, two first roller sections (64, 68) and a second roller section which is arranged between the first roller sections (64, 68) in the direction of extent of the self-aligning roller rotational axis, the self-aligning roller (25, 26, 35, 36, 60) having a barrel-like shape, characterized in that the first roller sections (64, 68) in each case have a frustoconical shape with a circumferential face which forms a rolling face (72, 78) of the respective first roller section (64, 68), and the second roller section has a cylindrical shape with a circumferential face which forms a rolling face of the second roller section.
A pump comprising: a side wall closed at each end by an end wall (12, 13) forming a substantially circular cavity for, in use, containing a fluid; one or more actuators (17, 20) each operatively associated with one or more of the end walls to cause an oscillatory motion of the associated end wall(s) whereby, in use, these axial oscillations of the end wall(s) drive substantially radial oscillations of the fluid pressure in the cavity; two or more apertures in the cavity; a valve disposed in at least one of the apertures; wherein the ratio of the radius of the cavity (a) to the height of the side wall (h) is greater than 1.7; characterised in that the actuator(s) is axially asymmetric such that, in use, a pressure oscillation with at least one nodal diameter is generated within the cavity. a side wall closed at each end by an end wall (12, 13) forming a substantially circular cavity for, in use, containing a fluid; one or more actuators (17, 20) each operatively associated with one or more of the end walls to cause an oscillatory motion of the associated end wall(s) whereby, in use, these axial oscillations of the end wall(s) drive substantially radial oscillations of the fluid pressure in the cavity; two or more apertures in the cavity; a valve disposed in at least one of the apertures; wherein the ratio of the radius of the cavity (a) to the height of the side wall (h) is greater than 1.7; characterised in that the actuator(s) is axially asymmetric such that, in use, a pressure oscillation with at least one nodal diameter is generated within the cavity.
A traveling control device of a traveling vehicle including a traveling control unit having a pair of left and right configurations capable of respectively driving a pair of left and right driving wheels, the traveling control device comprising: an instruction receiving portion configured to receive an operation instruction directed to each of the pair of left and right driving wheels; a speed instruction value calculation portion configured to calculate a speed instruction value that is to be instructed to the traveling control unit, based on each of the operation instructions; an operation instruction determination portion configured to determine, based on each of the operation instructions, whether the operation instruction is an operation instruction to rotate the pair of left and right driving wheels in the same direction as each other, or an operation instruction to rotate the pair of left and right driving wheels in different directions from each other; and a speed instruction value correction portion configured to, if the operation instruction is an operation instruction to rotate the pair of left and right driving wheels in the same direction as each other, extract a turning component by subtracting the smaller one of the speed instruction values from the larger one of the speed instruction values, directly using the smaller one of the speed instruction values as the speed instruction value, characterised in that the larger one of the speed instruction values is corrected to a sum of (i) the smaller one of the speed instruction values and (ii) a product of the turning component and a preset attenuation value which is smaller than 1. an instruction receiving portion configured to receive an operation instruction directed to each of the pair of left and right driving wheels; a speed instruction value calculation portion configured to calculate a speed instruction value that is to be instructed to the traveling control unit, based on each of the operation instructions; an operation instruction determination portion configured to determine, based on each of the operation instructions, whether the operation instruction is an operation instruction to rotate the pair of left and right driving wheels in the same direction as each other, or an operation instruction to rotate the pair of left and right driving wheels in different directions from each other; and a speed instruction value correction portion configured to, if the operation instruction is an operation instruction to rotate the pair of left and right driving wheels in the same direction as each other, extract a turning component by subtracting the smaller one of the speed instruction values from the larger one of the speed instruction values, directly using the smaller one of the speed instruction values as the speed instruction value, characterised in that the larger one of the speed instruction values is corrected to a sum of (i) the smaller one of the speed instruction values and (ii) a product of the turning component and a preset attenuation value which is smaller than 1.
A method for continuously conveying agricultural product from an agricultural vehicle to an agricultural product storage tank, characterized by: receiving, via a processor, a signal at an autonomous grain cart (50, 72, 76, 81, 82, 86) of a plurality of autonomous grain carts (50, 72, 76, 81, 82, 86) indicating that another autonomous grain cart (50, 72, 76, 81, 82, 86) of the plurality of autonomous grain carts (50, 72, 76, 81, 82, 86) is moving from the agricultural vehicle to the agricultural product storage tank; determining, via the processor, an expected location of the agricultural vehicle based at least in part on a harvesting map for the agricultural vehicle; determining, via the processor, a route to the expected location of the agricultural vehicle based at least in part on the expected location of the agricultural vehicle and the location of the autonomous grain cart (50, 72, 76, 81, 82, 86); and controlling, via the processor, the autonomous grain cart (50, 72, 76, 81, 82, 86) based at least in part on the route to the expected location of the agricultural vehicle after the signal indicating that the other autonomous grain cart (50, 72, 76, 81, 82, 86) is moving to the agricultural product storage tank from the agricultural vehicle is received. receiving, via a processor, a signal at an autonomous grain cart (50, 72, 76, 81, 82, 86) of a plurality of autonomous grain carts (50, 72, 76, 81, 82, 86) indicating that another autonomous grain cart (50, 72, 76, 81, 82, 86) of the plurality of autonomous grain carts (50, 72, 76, 81, 82, 86) is moving from the agricultural vehicle to the agricultural product storage tank; determining, via the processor, an expected location of the agricultural vehicle based at least in part on a harvesting map for the agricultural vehicle; determining, via the processor, a route to the expected location of the agricultural vehicle based at least in part on the expected location of the agricultural vehicle and the location of the autonomous grain cart (50, 72, 76, 81, 82, 86); and controlling, via the processor, the autonomous grain cart (50, 72, 76, 81, 82, 86) based at least in part on the route to the expected location of the agricultural vehicle after the signal indicating that the other autonomous grain cart (50, 72, 76, 81, 82, 86) is moving to the agricultural product storage tank from the agricultural vehicle is received.