Robots are designed to solve specific problems, in specific ways. For this badge, you will learn more about your role as the Programmer, along with some guidelines and tips when using ROBOTC.

In order to begin programming, you will need to install ROBOTC, build a robot, load the robot with the proper firmware to run ROBOTC programs, and then make sure it all works by downloading and running a sample program on the robot.

Your first project-based challenge will be a maze called "The Labyrinth". Successful completion of this challenge will require a thorough understanding of the movement behaviors and commands available in ROBOTC.

One powerful feature of the VEX EDR is its ability to be driven using the VEXnet Remote Control, in addition to being a fully capable, autonomous robot. This ability will prove to be indispensable in situations where direct human input is crucial. In this section, you will learn how to program your robot to react to input from the VEXnet Remote Control.

Robots separate themselves from simpler machines through their ability to detect and respond to their surroundings. In this section, you will learn how to take advantage of the multiple sensors available to the VEX EDR.

Robots separate themselves from simpler machines through their ability to detect and respond to their surroundings. In this section, you will learn how to take advantage of the multiple sensors available to the VEX EDR.

In Mechanical Foundations, we are introduced to how to go about creating simple, yet durable structural foundations, essential for any robotics system. We begin by identifying important parts that help in creating simple structures, and creating examples of some simple structures. The project for this Unit, you will be creating a reinforcement crane to demonstrate your understanding of simple structural design.

Getting starting with programming the VEX V5

Programming with VEX V5 Smart Motors in VEX C++

Programming with Loops and Conditional Statements in VEX C++

Transmissions work alongside motors to allow systems to deliver more Torque or Speed to its spinning parts. For this unit, we’ll be taking a look into a few different examples to create Mechanical Advantage. The project will be to create a moving crane arm. 

Picking a drivetrain for your robot will greatly depend on the task that the robot is trying to achieve. The most basic drivetrain for a robot usually consists of a chassis, motors that are attached to the chassis, and wheels that are attached to the motor. This unit will have students building examples of drivetrains, and for the unit project they will design a custom drivetrain that can climb obstacles.