Analyzing and Implementing Energy Efficient Solutions

MAE 494/576
Open Closing on September 12, 2025
Main contact
Arizona State University (ASU)
Tempe, Arizona, United States
Professor and Associate Dean
(7)
5
Timeline
  • September 15, 2025
    Experience start
  • September 24, 2025
    Project idea & team formation
  • October 25, 2025
    Literature review
  • November 25, 2025
    Potential energy/CO2 savings
  • December 3, 2025
    Summary & market analysis
  • December 6, 2025
    Experience end
Experience
5 projects wanted
Dates set by experience
Preferred companies
Anywhere
Any company type
Any industries

Experience scope

Categories
Data analysis Mechanical engineering Engineering project management Product or service launch Environmental sustainability
Skills
presentations energy efficiency analysis mechanical engineering industrial processes market size research innovation
Learner goals and capabilities

Energy Efficiency is a combined senior technical elective and graduate course with primarily mechanical engineering students. The goal is to enable the students to analyze energy-efficiency opportunities in buildings and industrial processes, and to innovate and implement energy efficiency technologies.

Learners

Learners
Graduate
Advanced levels
70 learners
Project
20 hours per learner
Learners self-assign
Teams of 5
Expected outcomes and deliverables

Deliverables are negotiable, and will seek to align the needs of the learners and the organization. All deliverables are in the form of presentations (recorded or live), except for the Summary Report which is a brief, 3-page written report.


Project idea & team formation

·      Is this idea innovative?

·      Does there appear to be a large market?

·      Does there appear to be substantial energy, cost, and/or CO2 savings?

Literature review

·      What is preventing this concept from being applied today?

·      Is there published research on this concept?

·      Is there any commercial activity, including patents, on this concept?

Potential energy/CO2 savings

·      Calculated annual energy savings for a single installation

·      Calculated annual CO2 savings for a single installation

Summary & market analysis

·       Calculated simple payback for a single installation

·       Estimated market size, either for the USA or globally

·       Overall summary of energy, cost, and CO2 savings

·       Commercialization potential

Summary Report

·      Brief introduction, including graphic

·      Brief overview of analysis or experiments

·      Overall summary of energy, cost, and CO2 savings

·      Commercialization potential

Project timeline
  • September 15, 2025
    Experience start
  • September 24, 2025
    Project idea & team formation
  • October 25, 2025
    Literature review
  • November 25, 2025
    Potential energy/CO2 savings
  • December 3, 2025
    Summary & market analysis
  • December 6, 2025
    Experience end

Project examples

Learners in groups of 3-5 will work with your company to identify your needs and provide actionable recommendations, based on their in-depth research and analysis.


Project activities that learners can complete may include, but are not limited to: 

  • Applying fundamental concepts in thermodynamics, fluid mechanics, and heat transfer to real-world applications
  • Analyzing energy efficiency opportunities in existing residential and commercial buildings, and in industrial applications
  • Designing energy-efficient strategies for new residential and commercial buildings, and in industrial applications
  • Proposing and/or analyzing the potential of a new energy efficiency technology or strategy
  • Analyzing the application of a renewable energy technology for its potential to reduce CO2 emissions and save money


Recent projects have included the following:

  • Carbon Capture using Heat from Concentrated Solar Power (CSP)
  • Waste Heat Recovery In Foundries Using Thermogalvanic Cells
  • Optimization of Absorption Refrigeration Systems using Manifold Microchannel Heat Exchangers
  • Portable Refrigerator
  • Economics of peak shifting in ToU rate plans using battery storage
  • Reusing Waste Heat for a Water Heater
  • Smart Insulation
  • Improvement In Selection of Refrigerants
  • Magnetic Refrigeration Cycle
  • Numerical Modeling of PCM-Based Room Heating
  • Photovoltaic windows
  • Analysis of multi-stage compressor air conditioner during peak hours
  • Urban Heat Island



Additional company criteria

Companies must answer the following questions to submit a match request to this experience:

  • Q1 - Checkbox
     *
  • Q2 - Checkbox
     *
  • Q3 - Checkbox
     *
  • Q4 - Checkbox
     *