CN205679400U - For verifying the instruction carriage of In-wheel motor driving Control of Electric Vehicles method - Google Patents

For verifying the instruction carriage of In-wheel motor driving Control of Electric Vehicles method Download PDF

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Publication number
CN205679400U
CN205679400U CN201620613112.9U CN201620613112U CN205679400U CN 205679400 U CN205679400 U CN 205679400U CN 201620613112 U CN201620613112 U CN 201620613112U CN 205679400 U CN205679400 U CN 205679400U
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China
Prior art keywords
wheel
electric
steering
motor
brake
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Expired - Fee Related
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CN201620613112.9U
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Chinese (zh)
Inventor
陈哲明
张博涵
周鹏
梁丹丹
曲帅
喻洋
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Chongqing University of Technology
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Chongqing University of Technology
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  • Steering Control In Accordance With Driving Conditions (AREA)

Abstract

The utility model discloses a kind of instruction carriage for verifying In-wheel motor driving Control of Electric Vehicles method, including vehicle body, independent suspension and electric wheel assembly, described electric wheel assembly is 4, it includes wheel, wheel hub motor, electromagnetic brake, being provided with steer motor on independent suspension, electric wheel assembly is connected with steer motor by steering spindle;Vehicle body is provided with steering wheel, accelerator pedal, brake pedal, car load sensor unit, full-vehicle control unit and power supply;Described power supply is that each electric elements are powered.This utility model can be used in the research of the various control methods of electric automobile based on In-wheel motor driving, so that the control method of theory can be verified by experiment.

Description

For verifying the instruction carriage of In-wheel motor driving Control of Electric Vehicles method
Technical field
This utility model relates to electric automobile and drives control field, particularly relates to a kind of for verifying In-wheel motor driving electricity The instruction carriage of electrical automobile control method.
Background technology
By In-wheel motor driving electric automobile, it is the most emerging a kind of electric automobile drive form, the electricity of this form Electrical automobile by the wheel hub motor being installed in wheel hub as motive power outputting apparatus, eliminate the clutch of orthodox car, variator, The machine driven systems such as semiaxis, the type electric automobile decreases the application of machine driven system, it is achieved that flexibly connect, and improves The range of application of wire control technology.The type electric automobile can pass through programme-control, and the difference controlling program causes electronic The multiformity of automobile control method, due to widely used line traffic control, so the control method of electric automobile is proposed higher wanting Ask, such as Electronic differential control method, rotating direction control method, brake control method, Anti-slip regulation control method, direct yaw moment Control method etc..Present stage is to utilize virtual emulation to try for the research of In-wheel motor driving Control of Electric Vehicles method mostly Test, and that virtual simulation test and real train test exist objectively is different.Therefore, research and development one be able to verify that control method by The electric automobile instruction carriage of In-wheel motor driving, it is essential to become in In-wheel motor driving Control of Electric Vehicles technique study Equipment.
Utility model content
For deficiencies of the prior art, the purpose of this utility model is to provide a kind of for verifying wheel hub electricity Machine drives the instruction carriage of Control of Electric Vehicles method, it is possible to for the various controlling parties of electric automobile based on In-wheel motor driving The research of method, so that the control method of theory can be verified by experiment.
In order to solve above-mentioned technical problem, the technical solution adopted in the utility model is such that a kind of for verifying wheel The instruction carriage of hub motor driven electric car control method, it is characterised in that: include that vehicle body, independent suspension and electric wheel are total Becoming, described electric wheel assembly is 4, and it includes that wheel, wheel hub motor, electromagnetic brake, 4 electric wheel assemblies lead to respectively Crossing an independent suspension to be connected with vehicle body, wherein, be provided with steer motor on independent suspension, electric wheel assembly passes through steering spindle It is connected with steer motor;
Vehicle body is provided with steering wheel, accelerator pedal, brake pedal, car load sensor unit, full-vehicle control unit and Power supply;Described car load sensor unit includes that steering wheel angle sensor, accelerator pedal displacement transducer, brake pedal displacement pass Sensor, gyroscope and sensor signal processor, described steering wheel angle sensor, accelerator pedal displacement transducer, braking Pedal displacement sensor, gyroscope are all connected with sensor signal processor;Described full-vehicle control unit includes that control method is held Row device, steering controller, driving controller and brake monitor;Wherein, described steering controller hangs with 4 independences simultaneously Steer motor on frame is connected, and drives controller to be connected with the wheel hub motor of 4 electric wheel assemblies simultaneously, and brake monitor is same Time be connected with the electromagnetic brake of 4 electric wheel assemblies;Described sensor signal processor passes through CAN_1 bus and controlling party Method executor is connected, and steering controller, driving controller and brake monitor are performed with control method by CAN_2 bus Device is connected;
Described power supply is that each electric elements are powered.
Further, described independent suspension is double cross arm independent suspension, described steer motor after decelerator with steering spindle It is connected.
Compared with prior art, this utility model has the advantage that
1, simple in construction, extensibility is strong, it is possible to for the checking of different control methods;As, can be used for wheel hub motor The integrated control method driving electric automobile is verified;Can be used for the control method of safety traffic, intelligent driving etc. is carried out Checking.
2, this instruction carriage uses CAN network communication, efficiently avoid the interference between each control system signal, and can be real Now decouple.
3, this instruction carriage uses four-wheel independent steering technology, it is possible to achieve pivot stud, the action such as laterally, and function is more, Test effect is more preferable.
4, this instruction carriage adds full-vehicle control unit, it is possible to achieve car load integrating control.
Accompanying drawing explanation
Fig. 1 is structural representation of the present utility model.
Fig. 2 is front view of the present utility model.
Fig. 3 is structural principle block diagram of the present utility model.
In figure: 1 vehicle body, 2 independent suspensions, 3 electric wheel assemblies, 31 wheels, 32 wheel hub motors, 33 electricity Magnetic brake, 4 steer motor, 5 steering spindles, 6 steering wheels, 7 accelerator pedals, 8 brake pedals, 9 car load sensings Device unit, 91 steering wheel angle sensors, 92 accelerator pedal displacement transducers, 93 brake pedal displacement transducers, 94 gyroscopes, 95 sensor signal processors, 10 full-vehicle control unit, 101 control method executors, 102 turns To controller, 103 driving controllers, 104 brake monitors, 11 power supplys, 12 decelerators, 13 seats, 14 Chair support.
Detailed description of the invention
Below in conjunction with drawings and Examples, the utility model is described in further detail.
Embodiment: see Fig. 1, Fig. 2 and Fig. 3, a kind of for verifying In-wheel motor driving Control of Electric Vehicles method Instruction carriage, including vehicle body 1, independent suspension 2 and electric wheel assembly 3.Described vehicle body 1 is provided with seat 13 and seat support 14, Seat 13 is arranged on vehicle body 1 by seat support 14.Described electric wheel assembly 3 is 4: left front Electric Motor Wheel assembly, left back Electric Motor Wheel assembly behind Electric Motor Wheel assembly, right front Electric Motor Wheel assembly, the right side;Described electric wheel assembly 3 includes wheel 31, wheel hub motor 32, electromagnetic brake 33, can drive wheel 31 to rotate by wheel hub motor 32, can control wheel by electromagnetic brake 33 31 slow down and stop.4 electric wheel assemblies 3 are connected with vehicle body 1, wherein, at independent suspension 2 by an independent suspension 2 respectively On steer motor 4 is installed, electric wheel assembly 3 is connected with steer motor 4 by steering spindle 5;When being embodied as, described independence Suspension 2 is double cross arm independent suspension, and described steer motor 4 is connected with steering spindle 5 after decelerator 12, thus increases steer motor The output moment of torsion of 4.
Vehicle body 1 is provided with steering wheel 6, accelerator pedal 7, brake pedal 8, car load sensor unit 9, full-vehicle control unit 10 and power supply 11.Described car load sensor unit 9 include steering wheel angle sensor 91, accelerator pedal displacement transducer 92, Brake pedal displacement transducer 93, gyroscope 94 and sensor signal processor 95, described steering wheel angle sensor 91 is used In the steering angle of detection steering wheel 6, accelerator pedal displacement transducer 92 and brake pedal displacement transducer 93 are respectively used to inspection Surveying accelerator pedal 7 and the displacement of brake pedal 8, described gyroscope 94 is used for detecting vehicle body 1 lengthwise travel rate and acceleration.Institute State steering wheel angle sensor 91, accelerator pedal displacement transducer 92, brake pedal displacement transducer 93, gyroscope 94 all with pass Sensor signal processor 95 is connected;By sensor signal processor 95 by steering wheel angle sensor 91, accelerator pedal displacement Simulation (voltage) signal that sensor 92, brake pedal displacement transducer 93 and gyroscope 94 detect is converted to numeral letter Number.
Described full-vehicle control unit 10 include control method executor 101, steering controller 102, drive controller 103, And brake monitor 104.Wherein, described steering controller 102 is connected with the steer motor 4 on 4 independent suspensions 2 simultaneously, Drive controller 103 to be connected with the wheel hub motor 32 of 4 electric wheel assemblies 3, with 4 electricity while of brake monitor 104 simultaneously The electromagnetic brake 33 of motor car wheel assembly 3 is connected.Described sensor signal processor 95 is held with control method by CAN_1 bus Row device 101 is connected, thus the digital signal after conversion is passed to control method executor 101.Steering controller 102, driving Controller 103 and brake monitor 104 are connected with control method executor 101 by CAN_2 bus;Control method performs After device 101 receives sensor signal, after processing according to its interior control method, to steering controller 102, drive control Device 103 and brake monitor 104 send action command;Thus to steer motor 4, wheel hub motor 32 and electromagnetic brake 33 are controlled.When being embodied as, according to different Control experiment demands, it is possible to write difference to control method executor 101 Control method, then by control executor carry out sending of action command.
Described power supply 11 is powered for each electric elements.
In whole control method process of the test:
1) checking In-wheel motor driving electric automobile drives control method: when driver applies active force to accelerator pedal Time, accelerator pedal displacement sensor accelerator pedal displacement stroke, meanwhile, measure vehicular longitudinal velocity by gyroscope and add Speed;Then by two sensor acquisition to signal be delivered to sensor signal processor and carry out analog digital conversion, digital signal Being delivered to control method executor by CAN_1 bus, digital signal is decoupled and processes, then by control method executor Sending corresponding actions instruction, action command is delivered to drive controller by CAN_2 bus, by driving controller to control simultaneously The rotating speed of each wheel hub motor and torque, make the wheel hub motor synchronous axial system of 4 electric wheel assemblies, thus reach to control wheel hub The purpose of the vehicle wheel rotational speed of motor driven electric car.
2) checking In-wheel motor driving type electric car brake control: when driver applies active force to brake pedal Time, brake pedal displacement transducer gathers the displacement of brake pedal, and is passed to by the displacement signal (voltage signal) collected Sensor signal processor carries out analog digital conversion, and the digital signal after conversion is delivered to control method by CAN_1 bus and performs Device, digital signal is decoupled and processes by control method executor, then sends corresponding actions instruction, and action command passes through CAN_2 bus is delivered to brake monitor, brake monitor control simultaneously each electromagnetic brake produce brake force, make 4 electronic The electromagnetic brake of wheel set synchronizes to produce brake force, thus realizes the purpose that car braking is slowed down, stopped.
3) checking In-wheel motor driving electric automobile rotating direction control method: driver turn steering wheel, steering wheel angle passes Sensor gathers steering wheel rotation angle, and the turn signal (voltage signal) collected is passed to sensor signal processor enters Row analog digital conversion, the digital signal after conversion is delivered to control method executor, control method executor couple by CAN_1 bus Digital signal decouples and processes, and sends corresponding actions instruction, and action command is delivered to course changing control by CAN_2 bus Device, steering controller control simultaneously each steer motor produce torque, it is achieved motor turning, walk crosswise, the action of pivot stud.
Control method can be evaluated according to the action effect in whole experimentation and correct by testing crew, To improve the control method of In-wheel motor driving electric automobile, reach aspect driving, the purpose of safe driving.
It is last it should be noted that above example is only in order to illustrate the technical solution of the utility model rather than restriction technologies Scheme, it will be understood by those within the art that, the technical solution of the utility model is modified or is equal to by those Replace, without deviating from objective and the scope of the technical program, all should contain in the middle of right of the present utility model.

Claims (2)

1. one kind for verifying the instruction carriage of In-wheel motor driving Control of Electric Vehicles method, it is characterised in that: include vehicle body, solely Vertical suspension and electric wheel assembly, described electric wheel assembly is 4, and it includes wheel, wheel hub motor, electromagnetic brake, 4 Electric wheel assembly is connected with vehicle body by an independent suspension respectively, wherein, is provided with steer motor on independent suspension, electronic Wheel set is connected with steer motor by steering spindle;
Vehicle body is provided with steering wheel, accelerator pedal, brake pedal, car load sensor unit, full-vehicle control unit and power supply; Described car load sensor unit include steering wheel angle sensor, accelerator pedal displacement transducer, brake pedal displacement transducer, Gyroscope and sensor signal processor, described steering wheel angle sensor, accelerator pedal displacement transducer, brake pedal Displacement transducer, gyroscope are all connected with sensor signal processor;Described full-vehicle control unit include control method executor, Steering controller, driving controller and brake monitor;Wherein, described steering controller simultaneously with on 4 independent suspensions Steer motor is connected, and drives controller to be connected with the wheel hub motor of 4 electric wheel assemblies simultaneously, and brake monitor is simultaneously with 4 The electromagnetic brake of individual electric wheel assembly is connected;Described sensor signal processor is held with control method by CAN_1 bus Row device is connected, and steering controller, driving controller and brake monitor are by CAN_2 bus and control method executor's phase Even;
Described power supply is that each electric elements are powered.
Instruction carriage for verifying In-wheel motor driving Control of Electric Vehicles method the most according to claim 1, its feature Being: described independent suspension is double cross arm independent suspension, described steer motor is connected with steering spindle after decelerator.
CN201620613112.9U 2016-06-21 2016-06-21 For verifying the instruction carriage of In-wheel motor driving Control of Electric Vehicles method Expired - Fee Related CN205679400U (en)

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CN201620613112.9U CN205679400U (en) 2016-06-21 2016-06-21 For verifying the instruction carriage of In-wheel motor driving Control of Electric Vehicles method

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Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN107963148A (en) * 2017-12-13 2018-04-27 上海测迅汽车科技有限公司 Unmanned bearing system
CN108036953A (en) * 2017-12-14 2018-05-15 燕山大学 In-wheel motor driving automobile Integrated design and Collaborative Control test platform and implementation method
CN108169673A (en) * 2017-12-13 2018-06-15 厦门大学 In-wheel motor driving electric vehicle experimental provision
CN111775687A (en) * 2020-07-08 2020-10-16 清华大学 Integrated multifunctional electric wheel assembly and electric driving walking device and control method thereof

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN107963148A (en) * 2017-12-13 2018-04-27 上海测迅汽车科技有限公司 Unmanned bearing system
CN108169673A (en) * 2017-12-13 2018-06-15 厦门大学 In-wheel motor driving electric vehicle experimental provision
CN108036953A (en) * 2017-12-14 2018-05-15 燕山大学 In-wheel motor driving automobile Integrated design and Collaborative Control test platform and implementation method
CN108036953B (en) * 2017-12-14 2019-08-23 燕山大学 In-wheel motor driving automobile Integrated design and Collaborative Control test platform and implementation method
CN111775687A (en) * 2020-07-08 2020-10-16 清华大学 Integrated multifunctional electric wheel assembly and electric driving walking device and control method thereof

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CF01 Termination of patent right due to non-payment of annual fee
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Granted publication date: 20161109

Termination date: 20170621