mhurhangee/ep-ind-claims huggingface dataset:
A control method for a vehicle frame that is configured to be connected with a power driving assembly and that is provided with a manipulation assembly and a controller for controlling the power driving assembly, the control method comprises: after the vehicle frame is connected with the power driving assembly and a communication connection is established between the controller and the power driving assembly, detecting, by the controller, a manipulation instruction from the manipulation assembly; and in response to detecting the manipulation instruction from the manipulation assembly and determining that the manipulation instruction corresponds to the power driving assembly, generating, by the controller according to the manipulation instruction, a control instruction for controlling the power driving assembly, and sending, by the controller, the control instruction to the power driving assembly; characterized in that the method is for the vehicle frame that is of a frame structure in bridge connection to the front and rear of a vehicle, and is in detachable connection with the power driving assembly which has a self-balancing system; when the power driving assembly is connected with the vehicle frame, the controller is in wired connection or wireless connection with the power driving assembly, the self-balancing system of the power driving assembly does not operate, and the vehicle is used as a kart; when the power driving assembly is disconnected from the vehicle frame, the self-balancing system of the power driving assembly operates, and the power driving assembly is used as a self-balancing scooter. after the vehicle frame is connected with the power driving assembly and a communication connection is established between the controller and the power driving assembly, detecting, by the controller, a manipulation instruction from the manipulation assembly; and in response to detecting the manipulation instruction from the manipulation assembly and determining that the manipulation instruction corresponds to the power driving assembly, generating, by the controller according to the manipulation instruction, a control instruction for controlling the power driving assembly, and sending, by the controller, the control instruction to the power driving assembly; characterized in that the method is for the vehicle frame that is of a frame structure in bridge connection to the front and rear of a vehicle, and is in detachable connection with the power driving assembly which has a self-balancing system; when the power driving assembly is connected with the vehicle frame, the controller is in wired connection or wireless connection with the power driving assembly, the self-balancing system of the power driving assembly does not operate, and the vehicle is used as a kart; when the power driving assembly is disconnected from the vehicle frame, the self-balancing system of the power driving assembly operates, and the power driving assembly is used as a self-balancing scooter.
Space aircraft, having a fuselage and two wings (4A, 4B) arranged on either side of said fuselage, said wings (4A, 4B) being arranged such that their respective leading edges (15A, 15B) are situated at a position called first longitudinal position along a longitudinal axis (X-X) of said fuselage, the space aircraft also comprising two nacelles (7A, 7B) arranged at the ends (6A, 6B) of the wings (4A, 4B), these nacelles (7A, 7B) each bearing a horizontal empennage (8A, 8B) and a vertical empennage (9A, 9B), said fuselage has a transverse section of variable size along the longitudinal axis (X-X) of said fuselage, such that, from the front towards the rear of the space aircraft, along the longitudinal axis (X-X), the size of the transverse section of the fuselage increases as far as a maximum transverse section and then decreases, the maximum transverse section is at a position called second longitudinal position along said longitudinal axis (X-X), this second longitudinal position being situated in front of said first longitudinal position.
A method for performing tasks, the method including: storing, in at least one memory, instructions for performing a plurality of tasks, the instructions including, for each of at least some of the tasks, a respective subroutine that includes a task section for performing that task and a control section that controls execution of a subroutine of a subsequent task; and executing, by at least one processor, at least some of the stored subroutines, the executing including: spawning a first process for executing a first subroutine for a first task, the first subroutine including a first task section and a first control section; and after the first task section returns, calling at least one function included in the first control section that determines whether or not to spawn a second process for executing a second subroutine, the second subroutine being a subroutine of a subsequent task. storing, in at least one memory, instructions for performing a plurality of tasks, the instructions including, for each of at least some of the tasks, a respective subroutine that includes a task section for performing that task and a control section that controls execution of a subroutine of a subsequent task; and executing, by at least one processor, at least some of the stored subroutines, the executing including: spawning a first process for executing a first subroutine for a first task, the first subroutine including a first task section and a first control section; and after the first task section returns, calling at least one function included in the first control section that determines whether or not to spawn a second process for executing a second subroutine, the second subroutine being a subroutine of a subsequent task. spawning a first process for executing a first subroutine for a first task, the first subroutine including a first task section and a first control section; and after the first task section returns, calling at least one function included in the first control section that determines whether or not to spawn a second process for executing a second subroutine, the second subroutine being a subroutine of a subsequent task.
A rotary connector device comprising: a stator; a rotator rotatably connected to the stator; and a flexible flat cable group housed capably of being wound and rewound in an annular space between the stator and the rotator, the flexible flat cable group including a first flexible flat cable wound on an inner peripheral side of the annular space; and a second flexible flat cable wound on an outer peripheral side with respect to the first flexible flat cable, having a length in the annular space longer than that of the first flexible flat cable, the second flexible flat cable including both first conductors (42-1b to 42-1e) constituting an airbag circuit; and a second conductor constituting a horn circuit; wherein the first flexible flat cable includes at least one fourth conductor (41-1a to 41-1c) constituting an abnormality detection circuit for detecting abnormality of the first flexible flat cable. a stator; a rotator rotatably connected to the stator; and a flexible flat cable group housed capably of being wound and rewound in an annular space between the stator and the rotator, the flexible flat cable group including a first flexible flat cable wound on an inner peripheral side of the annular space; and a second flexible flat cable wound on an outer peripheral side with respect to the first flexible flat cable, having a length in the annular space longer than that of the first flexible flat cable, the second flexible flat cable including both first conductors (42-1b to 42-1e) constituting an airbag circuit; and a second conductor constituting a horn circuit; wherein the first flexible flat cable includes at least one fourth conductor (41-1a to 41-1c) constituting an abnormality detection circuit for detecting abnormality of the first flexible flat cable.
A thermoplastic resin composition, comprising a thermoplastic resin and, per 100 parts by mass of the thermoplastic resin, from 0 to 0.2 parts by mass of a metal salt-containing flame retardant, and not less than 0.05 parts by mass and less than 3 parts by mass of an organopolysiloxane, wherein the organopolysiloxane has a molecular weight distribution (Mw/Mn) determined in accordance with indications given in the description of 1.01 to 1.4.
A variable inlet area turbine comprising: a volute having a discharge area for flow of exhaust gas carried in the volute into a turbine inlet area; and a flexible dividing wall having an end and movable along a path defined adjacent the turbine inlet area, said path comprising a track (20, 22) substantially surrounding the turbine inlet area and transitioning in a smooth curve into an outer wall of the volute, said dividing wall selectively positionable by insertion and withdrawal along the path to vary the discharge area from substantially closed to substantially open. a volute having a discharge area for flow of exhaust gas carried in the volute into a turbine inlet area; and a flexible dividing wall having an end and movable along a path defined adjacent the turbine inlet area, said path comprising a track (20, 22) substantially surrounding the turbine inlet area and transitioning in a smooth curve into an outer wall of the volute, said dividing wall selectively positionable by insertion and withdrawal along the path to vary the discharge area from substantially closed to substantially open.
Bandstop optical filtering device comprising: duplicating means that are able to provide a duplicate of an optical signal to at least a first and a second output port; a first optical filtering unit, which is connected to the first output port of the duplicating means, and which has a transfer function with a portion that decreases between a first passband-edge wavelength (λc1) and a first stopband-edge wavelength (λm1$); a second optical filtering unit, which is connected to the second output port of the duplicating means, and which has a transfer function with a portion that increases between a second stopband-edge wavelength (λm2) and a second passband-edge wavelength (λc2), the second stopband-edge wavelength being longer than the first stopband-edge wavelength; and coupling means, which are connected to the first and second optical filtering units and arranged to combine the optical signals filtered by said optical filtering units in order to obtain a filtered optical signal from which the optical band comprised between the first and second stopband-edge wavelengths has been removed. duplicating means that are able to provide a duplicate of an optical signal to at least a first and a second output port; a first optical filtering unit, which is connected to the first output port of the duplicating means, and which has a transfer function with a portion that decreases between a first passband-edge wavelength (λc1) and a first stopband-edge wavelength (λm1$); a second optical filtering unit, which is connected to the second output port of the duplicating means, and which has a transfer function with a portion that increases between a second stopband-edge wavelength (λm2) and a second passband-edge wavelength (λc2), the second stopband-edge wavelength being longer than the first stopband-edge wavelength; and coupling means, which are connected to the first and second optical filtering units and arranged to combine the optical signals filtered by said optical filtering units in order to obtain a filtered optical signal from which the optical band comprised between the first and second stopband-edge wavelengths has been removed.
A method of preparing a solid compound of Formula 1, the method comprising (a) refluxing a compound of Formula 1c in an organic solvent to form a reaction mixture; and (b) crystallizing the reaction mixture by cooling to less than 20 °C to obtain the solid compound of Formula 1, wherein Boc is a nitrogen protecting group.
Apparatus for monitoring a peripheral nerve of a human or animal subject comprising: a flexible substrate for wrapping around at least part of a perimeter of a peripheral nerve; a plurality of electrodes spaced on the flexible substrate for contacting the peripheral nerve around the perimeter; and electrical connections to the electrodes, wherein the apparatus is arranged to use the electrical connections to apply, to each of a plurality of combinations of the electrodes, a corresponding probe electrical signal, and to measure, for each such combination of the electrodes, resulting electrical responses at one or more of the plurality of electrodes; and the apparatus comprises a reconstructor arranged to receive signals corresponding to said electrical responses and to determine therefrom, by electrical impedance tomography image reconstruction, electrical properties at one or more locations within the peripheral nerve. a flexible substrate for wrapping around at least part of a perimeter of a peripheral nerve; a plurality of electrodes spaced on the flexible substrate for contacting the peripheral nerve around the perimeter; and electrical connections to the electrodes, wherein the apparatus is arranged to use the electrical connections to apply, to each of a plurality of combinations of the electrodes, a corresponding probe electrical signal, and to measure, for each such combination of the electrodes, resulting electrical responses at one or more of the plurality of electrodes; and the apparatus comprises a reconstructor arranged to receive signals corresponding to said electrical responses and to determine therefrom, by electrical impedance tomography image reconstruction, electrical properties at one or more locations within the peripheral nerve.
Supply unit for a patient room, comprising a profile-like housing for wall or ceiling mounting, which is designed to accommodate supply lines and extends elongated in a longitudinal direction, and at least one luminaire (9, 90, 200) with at least one illuminant unit (4, 40, 400), which comprises several illuminants, in particular LEDs (3, 300, 10, 100), which are arranged next to one another in a section in the longitudinal direction, and a control unit for controlling the at least one illuminant unit (4, 40, 400), several illuminant groups (31, 32, 33, 34, 301, 302) being provided within the section and being arranged next to one another in the longitudinal direction, wherein each illuminant group (31, 32, 33, 34, 301, 302) comprises at least one of the illuminants (3, 300, 10, 100) of the illuminant unit (4, 40) and wherein the illuminant groups (31, 32, 33, 34, 301, 302) are controllable independently of one another by the control unit, characterized in that the control unit is designed such that a lighting section (5, 50) with a specific longitudinal section length (d) can be preset, within which the control unit activates the illuminants (3, 300, 10, 100) for emitting light, the longitudinal position of the lighting section (5, 50) being adjustable via the control unit, the longitudinal section length (d) and the longitudinal position of the lighting section (5, 50) being individually predeterminable by the user.
A robot cleaner comprising: a case; a suction device provided in the case; a suction nozzle for sucking dust by driving the suction device; a dust collection device for collecting foreign substances contained in the air sucked via the suction nozzle; a driving unit for automatically driving the robot cleaner; and a controller for controlling the driving of the suction device and the driving unit, and for generating cleaning history information comprising map information on a cleaning area and moving path information, the robot cleaner comprising a wireless communication module provided in the case, wherein the controller is arranged to store the cleaning history information in a memory unit, and the wireless communication module is arranged to transmit the cleaning history information in response to receiving a request for the cleaning history information, characterized in that the cleaning history information comprises bibliographical information for distinguishing a series of cleanings from start to end of the cleanings from other cleanings. a case; a suction device provided in the case; a suction nozzle for sucking dust by driving the suction device; a dust collection device for collecting foreign substances contained in the air sucked via the suction nozzle; a driving unit for automatically driving the robot cleaner; and a controller for controlling the driving of the suction device and the driving unit, and for generating cleaning history information comprising map information on a cleaning area and moving path information, the robot cleaner comprising a wireless communication module provided in the case, wherein the controller is arranged to store the cleaning history information in a memory unit, and the wireless communication module is arranged to transmit the cleaning history information in response to receiving a request for the cleaning history information,
A bone fixation apparatus comprising: an insert having an open proximal end and an open distal end defining a lumen therethrough, the open proximal end having a geometric pattern for mating with a driving tool such that a rotational force applied to the driving tool causes rotation of the insert; a first helical thread disposed on an outer surface of the insert, the first helical thread configured to engage bone; and a second helical thread disposed in the lumen of the insert; the bone fixation apparatus characterized in that it further comprises: a pedicle screw having a bone screw member and a housing defining a channel for receiving a spinal rod, the bone screw member including a spherical head and a shank extending therefrom, the shank having a third helical thread on an outer surface thereof, the spherical head movably retained in a cavity of the housing, the second helical thread engageable with the third helical thread such that the pedicle screw is coupled to the insert. an insert having an open proximal end and an open distal end defining a lumen therethrough, the open proximal end having a geometric pattern for mating with a driving tool such that a rotational force applied to the driving tool causes rotation of the insert; a first helical thread disposed on an outer surface of the insert, the first helical thread configured to engage bone; and a second helical thread disposed in the lumen of the insert; the bone fixation apparatus characterized in that it further comprises: a pedicle screw having a bone screw member and a housing defining a channel for receiving a spinal rod, the bone screw member including a spherical head and a shank extending therefrom, the shank having a third helical thread on an outer surface thereof, the spherical head movably retained in a cavity of the housing, the second helical thread engageable with the third helical thread such that the pedicle screw is coupled to the insert.
A process for producing an aqueous particle dispersion comprising the steps of: a) providing a dispersion consisting of water and solid core particles, b) providing an aqueous solution of a water-soluble, interfacially-active polymer having a molecular weight, determined by the method in the description, of more than 10 kDa c) mixing said aqueous dispersion of solid core particles with said aqueous polymer solution, d) removing free polymer from the obtained mixture; wherein, in step c), the amount of the water-soluble, interfacially-active polymer mixed with said aqueous dispersion of solid core particles exceeds the amount of polymer required to coat the surface of each of the solid core particles with a monolayer of the polymer, and wherein step d) is repeated until the surface tension, as determined by the method in the description, of the resulting modified particle dispersion is in a range of from 60 to 72 mN/m, preferably from 65 to 72 mN/m and more preferably from 67 to 72 mN/m. a) providing a dispersion consisting of water and solid core particles, b) providing an aqueous solution of a water-soluble, interfacially-active polymer having a molecular weight, determined by the method in the description, of more than 10 kDa c) mixing said aqueous dispersion of solid core particles with said aqueous polymer solution, d) removing free polymer from the obtained mixture; wherein, in step c), the amount of the water-soluble, interfacially-active polymer mixed with said aqueous dispersion of solid core particles exceeds the amount of polymer required to coat the surface of each of the solid core particles with a monolayer of the polymer, and wherein step d) is repeated until the surface tension, as determined by the method in the description, of the resulting modified particle dispersion is in a range of from 60 to 72 mN/m, preferably from 65 to 72 mN/m and more preferably from 67 to 72 mN/m.
A seal assembly and a bonnet, wherein the seal assembly is disposed within a radial seal groove of the bonnet to sealingly engage the bonnet within a bore, the seal assembly comprising: a radial seal surface; an axial seal surface; a vent surface including a vent surface relief groove; an axial preload surface including an axial preload surface relief groove; a backup ring at least partially bonded to the seal assembly adjacent to the axial seal surface; and at least one vent to allow communication between a high-pressure zone and the vent surface; wherein the radial seal surface sealingly engages against the bore and the axial seal surface sealingly engages against a longitudinal wall of the radial seal groove; and wherein the seal assembly is thrust towards the longitudinal wall and away from a radial wall of the radial seal groove when pressure in the high-pressure zone increases. a radial seal surface; an axial seal surface; a vent surface including a vent surface relief groove; an axial preload surface including an axial preload surface relief groove; a backup ring at least partially bonded to the seal assembly adjacent to the axial seal surface; and at least one vent to allow communication between a high-pressure zone and the vent surface; wherein the radial seal surface sealingly engages against the bore and the axial seal surface sealingly engages against a longitudinal wall of the radial seal groove; and wherein the seal assembly is thrust towards the longitudinal wall and away from a radial wall of the radial seal groove when pressure in the high-pressure zone increases.