This is our primary cobot code.

• we have spent 2 years perfecting our driving code, it has better consumption characteristics and behavior than the standard arcadeDrive function

• utils::removeGhost(double): removes input which could come from inacurate controllers
• utils::expReduceBrownout(double, double&): averages previous value in with the first one to make changes less extreme and round edges; plots calculated input onto a curve
• utils::linReduceBrownout(double, double, dobule&): if the change in input value is too great it changes the change to the limit given. This hasn't been tested, but could be used in combination with utils::expReduceBrownout.

• Because the drive-train isn't perfect and the carpet doesn't give uniform traction, we can gain from being able to drive perfectly straight without veering off course.
• utils::driveStraight(ADXRS450_Gyro&, RobotDrive&, double, double): uses the angle measurement from the gyro as the turning value. Drives straight at a given speed for a given number of seconds

• Side-peg autonomous:
• (done) use gyro to drive straight and correct for imperfect drive-train
• (nope) use ultrasonic to stop once we are the correct distance out (hardware issues)
• (done) use vision to identify the retro-reflective tape on the sides of the peg
• (nope) calculate degrees needed to point at the peg. We also need to account for offset camera (we have an equation for this)
• (nope) use gyro and PIDController object to turn the calculated degrees (const calibration consumes time)

• Put all changes in your commit description
• If you need a text editor, I recommend you install eclipse to take full advantage of it's syntax highlighting, error detection, and integrated documentation
• Include lots of comments (use consice language so we don't have to read an essay)
• a great person once said "good code explains itself" : use self-explanatory names, syntax, organization, grouping, etc. and write code that is easy to read.
• KISS = Keep It Simple Stupid
• Have Fun :)
• You must be a RoboBibb Student to commit/PR.

• 6 sim drive-train
• 6 spark motor controllers
• using 4 pwm ports

• front-facing AXIS 206 camera for vision
• rear-facing Lifecam HD 3000

• We have a winch on the back of the robot for climbing, 25:1 gear ratio

• 2 X-Box 360 controllers - one for driving, the other for climbing
• Driver - Y reverses the controls (forward-reverse swap)
• Driver - A activates the winch
• Driver - B stops the winch
• Driver - X toggles slow-mode (useful when accuracy is more important than speed)
• Driver - left stick is clutch, right stick is steering
• Climber - winch spins while trigger is pressed

• Uses gyro to drive up to middle peg