1 / 11

P11211: Land Vehicle for Education: Chassis, Motor, Power

P11211: Land Vehicle for Education: Chassis, Motor, Power. Ryan Sutton: Project Manager / Mechanical Engineer Jonathan Fabian: Interface Manager / Electrical Engineer Jesse Keyser: Mechanical Engineer Matthew O’Neill: Mechanical Engineer. Project Description.

ordell
Download Presentation

P11211: Land Vehicle for Education: Chassis, Motor, Power

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript

  1. P11211: Land Vehicle for Education: Chassis, Motor, Power Ryan Sutton: Project Manager / Mechanical Engineer Jonathan Fabian: Interface Manager / Electrical Engineer Jesse Keyser: Mechanical Engineer Matthew O’Neill: Mechanical Engineer

  2. Project Description • Robotic Platform designed to support student created attachments • Market: Freshmen Mechanical Engineers • Key customer needs and associated engineering specifications: • Mass Production Cost Less than $150/unit • Durable Able to withstand a drop of ≤ 3ft • Supports Student Creations Able to support ≤5lbs of additional weight • Easy to Operate Move at a speed of ≥ .5 MPH Turning radius ≤12in

  3. Design Concept Convenience Charging Port MSA Control Interface MSA Mounting Points Aesthetically Pleasing Façade

  4. System Architecture

  5. Product Development Process • Phase 1: Planning • Customer Needs • Engineering Specs • Phase 2: Concept Generation • Drivetrain/Power Supply • Shape/structure • Phase 3: Analysis • Torque requirement • Power requirement • Structural integrity • Phase 4: Final Design • Present detailed design • Order parts • Phase 5: Construction • Machining • Building • Phase 6: Testing • Confirm Engineering Specs • Phase 7: Steps Forward • Lighter robot will reduce cost

  6. Technical Risk Assessment

  7. Summary of Test Results

  8. Current Status of Project • Meets all customer needs • Meets all engineering specifications except: • Mass production cost • Drop test • All tasks completed on schedule

  9. Budget • Prototype Budget: $250.00 • Prototype Actual Cost: $204.21 • Mass Production Budget (Per 10): $150.00 • Mass Production Cost (Per 10): $170.33 • Alternative Design Potential Cost (Mass Production): $125.46

  10. MSD II Project Milestones • Week 2: Design finalized and parts ordered • Week 5: Functional chassis prototype • Week 6: Subsystem testing complete • Week 7: Functional system prototype • Week 8: Poster complete • Week 9: System testing complete, technical paper complete, Imagine RIT exhibit

  11. Future Work • Strive to cut down cost • Unibody construction • Weight reduction • Motor size reduction • Number of Parts reduction • Battery size reduction • Machining and assembly time reduction • Further develop P11211 alternative design suggestion • Further develop DPM rework

More Related