Mechatronics and Renewable Energy Lab
Platform 1:
H
obby
E
lectric
R
emote
C
ontrol
C
ar
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Input
|
Processing
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Output
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Feedback Loop
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Software (Dynamic)
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Machine
Vision
GPUCV
|
|
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System
Modeling
PID
controller
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Software (Static)
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OS
Selection
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High Level
|
Remote
Communication
|
Computer
Platform Selection
|
Remote
Communication
|
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On-Vehicle Interface
|
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On-Vehicle Interface
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Low Level
|
Remote
Control
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Embedded
Platform Selection
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Motor
Driver Interface
|
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Hardware (Dynamic)
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Sensors
|
|
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Hardware (Static)
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Add-on Frame
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Physical (Dynamic)
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EMI/EMC
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Physical (Static)
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Add-on
Frame
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Project 6a: Remote Control
While the vehicles are
already purchased with a remote control transceiver unit, many of these
are limited in capabilities, unless one purchases more expensive
remotes.
The students may design a remote
control transceiver unit that meets the following requirements:
·
Communicates on an unlicensed band (27MHz, 900MHz, 2.4GHz);
·
Is capable of sending and receiving at least 4 channels (throttle,
direction, transmission, etc.)
·
Is capable of sending PWM and digital signals;
·
Sends information at (at least) 25 Baud per channel (higher is better);
·
Has a micro-adjustable system for every PWM signal (such as
potentiometers).
Goals:
·
Research existing remote control systems in the hobby and industrial
worlds;
·
Evaluate performance, cost, complexity and capabilities of existing and
custom-built solutions;
·
Design and build a remote control system that can operate the vehicle in
real-time.
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