Our Team
My name is Jackson Lyon and I am working alongside my fellow mechanical engineering technology student, Ryan Burdi. We are working together to create a rover capable of traveling to specified coordinates autonomously with the ability to avoid obstacles and deliver payloads. We are using our combined knowledge of mechanics, programming, materials science, statics, and the product design and development processes to create this rover. You can reach us by clicking on the contact link at the top of this page.
Customer Requirements
- Maximum weight: The rover weight (including marker payload) should not exceed 4 pounds
- Robustness: The rover should be capable of completing any mission following an 18” drop
- Weather resistance: The rover should be capable of completing the final mission in simulated rainy conditions (a.k.a. the “sprinkler test”)
- These customer requirements were broken down into sub-categories to obtain the list below. Each requirement was weighted by each member considering its level of importance. The average of each members weighting is found below.
- Weight 15%
- Robustness 10%
- Weather Resistance 5%
- Repeatability 30%
- Complexity 20%
- Cost 20%
Engineering Specifications
- Weight under 3lbs
- Cost under $150
- Limit exposed wiring
- Must survive 18” drop
- Try to limit to 20 components
- Must have a useable 1.5” x 1.5” x 1.5” storage capacity
- Must have obstacle detection (within 12” of obstacle)
- Must be capable of changing X (left/right) and Y (forward/backward) directions
- Must have GPS navigation capabilities
- Battery must last entirety of missions (>10min)
Gantt Chart
Statement of Work
Purpose:
The purpose of this project is to create a functioning rover that can accomplish a series of specified missions. GPS coordinated rover that can fly or drive to a specific destination on multiple surfaces, the rover should perform without human intervention once it is set up
Scope of Work:
A rover that can fly or drive will be designed and fabricated so that it is capable of precise GPS navigation, obstacle evasion, and load-bearing and delivering
Location of Work:
Confluence Hall, Colorado Mesa University.
Period of Performance:
1/23/2023 through 5/15/2023
Deliverables:
Arduino Programming, journal of product development, 3D printer, HTML website
Acceptance Criteria:
The rover will have a specific destination in all terrains in a certain amount of time while avoiding objects within its path. Once placed, the rover will start driving or flying to its destination. Rover must be less than four pounds
Work Breakdown Structure
Bill of Materials
Models of Prototype
Figure 1. Full assembly of mission 1 rover design
Figure 2. Exploded view of initial product design
Figure 3. Full assembly of updated product design for Mission 2
Figure 4. Exploded view of updated product design for Mission 2
Figure 5. Full assembly of final product design for Mission 3 and 4
Functionality Videos
Contact Info
Email us here!
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