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  • Grade(s): 9-12
  • Time: 1 week
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Description

  • Students will learn tips and tricks with the VEX V5 Workcell and compete in a mini-competition to achieve a high score.
  • Students will be guided through different troubleshooting techniques, as well as helpful suggestions, for how to edit the Workcell.
  • Students will investigate how workcells are used in manufacturing facilities. 
  • Students will compete in a mini-competition. The goal of the mini-competition is to sort as many ‘shipments’ as possible in a 5-minute round. A shipment is a collection of six disks: two red, two green, and two blue. 
  • After exploring the rules of the mini-competition, students will be guided to build a project in VEXcode V5 to score as many points as possible in the mini-competition. 
  • The team at the end of the mini-competition with the most points in a single round, wins.

Essential Question(s)

  • How do I prepare for a mini-competition?
  • How do I troubleshoot the V5 Workcell?

Understanding(s)

Students will understand:

  • Troubleshooting techniques for the V5 Workcell.
  • What a workcell is and how they are used in manufacturing facilities. 
  • Different aspects of workcell programming, including Robot Trajectory Planning, I/O Mapping, and Logic. 
  • The rules and goal of the mini-competition.

Objective(s)

  • Review troubleshooting techniques to prepare for a mini-competition.
  • Identify the design process for a workcell.
  • Create a project for the mini-competition to sort as many shipments as possible in 5 minutes.

Vocabulary

Workcell
a specialized arrangement of people, equipment, tools, and materials in a manufacturing environment used to improve the quality, speed, and cost of the process.
Virtual Simulation/OFF-LINE Programming
tools which allow engineers to design a virtual model of a workcell.
Robot Trajectory
planning out a robot's behaviors within a workcell including its speed, position, and actions and how they relate to the other devices within the cell.
I/O Mapping
creating a schematic or chart which indicates each of the input and output connections between the workcell’s processors (PLC, robot processors, CNC machine processors, etc.) and their devices.
Logic
using flowcharting or other tools to determine the most efficient behavior for the devices in a workcell to complete a task.
Cycle time
the elapsed time between a workcell starting an action and the time it takes to complete the action.
Cost analysis
an accounting of all the costs related to production to create a projected margin of profit.

Materials Needed

Quantity Materials Needed
1

Engineering Notebook

1

VEX V5 Workcell

1

VEXcode V5

6

Colored Disks (2x red, 2x blue, 2x green)

Educational Standard(s)

  • Next Generation Science Standards: HS-ETS1-3. Evaluate a solution to a complex real-world problem, based on prioritized criteria and trade-offs that account for a range of constraints, including cost, safety, reliability, and aesthetics, as well as possible social, cultural, and environmental impacts.
  • Computer Science Teacher Association: 3A-AP-18 Create artifacts by using procedures within a program, combinations of data and procedures, or independent but interrelated programs.
  • Computer Science Teacher Association: CSTA 3A-AP-13 Create prototypes that use algorithms to solve computational problems by leveraging prior student knowledge and personal interests.
  • Computer Science Teacher Association: 3A-AP-17 Decompose problems into smaller components through systematic analysis, using constructs such as procedures, modules, and/or objects.

Go to this page in the Knowledge Base to see a cumulative list of VEX V5 Workcell STEM Labs standards.