Solar Team Six Solar Powered 3D Printer Leah Jones, Aaron Edelman, - - PowerPoint PPT Presentation

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Solar Team Six Solar Powered 3D Printer Leah Jones, Aaron Edelman, - - PowerPoint PPT Presentation

Solar Team Six Solar Powered 3D Printer Leah Jones, Aaron Edelman, Rob Mejia, Sienna Fisher, Olohirere Aruya , Alex Holden Agenda Norms and Values Project Background Problem Statement Use Case Scenario Customer


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SLIDE 1

Solar Team Six

Solar Powered 3D Printer Leah Jones, Aaron Edelman, Rob Mejia, Sienna Fisher, Olohirere Aruya , Alex Holden

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SLIDE 2

Agenda

  • Norms and Values
  • Project Background
  • Problem Statement
  • Use Case Scenario
  • Customer Requirements
  • Engineering Requirements
  • QFD Matrix
  • Future Risks
  • Draft Project Plan
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SLIDE 3

Norms and Values

  • Communication
  • Time Management
  • Documentation
  • Complete current task before moving on to future tasks
  • SMILE:)
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SLIDE 4

Project Background

Stakeholders

  • P19462 (Us)
  • RIT MSD
  • RIT Global
  • Universidad Autónoma de Occidente
  • Bill Hard Fund
  • Fundautónoma
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SLIDE 5

Problem Statement

Current State : In 2017, an RIT MSD team (P18462) developed a 3D printing solution that combined solar energy and battery storage to overcome an unreliable power grid system. Desired State : The key goals of the project are to make improvements on the existing solar-powered 3D printer developed by RIT students. Project Goals : The power management system should be made more efficient and robust. Switching between solar and grid power should be seamless and the printer should fail gracefully when power cuts out. Constraints : The printer should be easy to package, assemble, disassemble and transport. The resulting solution should be sustainable with easily obtained materials.

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SLIDE 6

Use Case Scenario

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SLIDE 7

Customer Requirements & Engineering Requirements

  • Capable of operation off of solar energy
  • Consumes Plastic Pellets (not a Filament)
  • Increased functionality
  • Fails gracefully when power runs out in the

middle of the print job

  • Compact
  • Reliable
  • Capable of operating without connection to

the grid

  • Easy to Use
  • Easy to assemble and disassemble
  • Minimum print volume
  • Low unit manufacturing cost
  • Easy to transportation
  • Minimum print Speed
  • Power Consumption - Time (hrs)
  • Build Volume - cm^3
  • Start up time - Time (min)
  • Total Mass - Kg
  • Print Speed - mm/s
  • Device Size - m^3
  • Resolution - µm
  • % Failures - %
  • Time to swap functionality - Time (min)
  • Assembly & Disassembly Time - Time (hrs)
  • Time to connect/disconnect to solar - Time (hrs)
  • Unit manufacturing cost - $
  • Accepts Plastic Pellets - Binary(y/n)

*Key scope constraints given by the customer

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SLIDE 8

CR & ER Matrix

Keys to Success

  • % Failure
  • Power

Consumption

  • Build Volume
  • Device Size
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SLIDE 9

Future Risk

  • Technical Risks:

○ Failure to integrate power management system ○ Faulty integration of pellet extruder

  • Resource-related Risks:

○ System components/parts not available for purchase in Colombia ○ Lack of sunlight

  • Safety Risks:

○ Toxic fumes from melting plastic ○ Electrocution

  • Environmental + Social Risks:

○ Weather change causing damage to printer (e.g. rain) ○ Plastic waste generated from failed print jobs

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SLIDE 10

Project Plan - Going Forward

MSD I: Milestones will be set at each phase review

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SLIDE 11

Questions?