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e-Hydrogen Cost Optimizer (Future development)

Project

Project Details

Program
Mechanical Engineering
Field of Study
• Environmental Engineering • Chemical Engineering • Mechanical Engineering
Division
Physical Sciences and Engineering

Project Description

This project aims to advance the capabilities of the existing Python-based application by enhancing its techno-economic optimization and life cycle assessment (LCA) functionalities for electrolytic hydrogen production. Future development will focus on: i) incorporating additional e-fuesl production, ii) improving the accuracy and scalability of the Mixed-Integer Linear Programming (MILP) models, iii) adding new types of electrolyser technolgies and iv) expanding the environmental impact assessment to include more comprehensive sustainability metrics. Enhanced user interfaces and scenario analysis tools will be developed to facilitate broader adoption and customizable policy and market condition simulations. The goal is to create a robust, flexible decision-support tool that can adapt to emerging technologies and evolving hydrogen economies worldwide.


About the Researcher

Subram Sarathy
Mani Sarathy - Professor, Chemical Engineering and Associate Director, Clean Combustion Research Center (Physical Science and Engineering Division)

Desired Project Deliverables

  1. Enhanced version of the e-Hydrogen Cost Optimizer application with improved MILP models, expanded renewable energy technology options, and advanced environmental impact metrics integrated.
  2. Comprehensive scenario-based techno-economic optimization reports analyzing system performance and sustainability under varying policy, market, technology conditions, and locations.
  3. A peer-reviewed publication presenting the methodology, new app capabilities, and case study results demonstrating the optimized cost and environmental benefits of advanced electrolytic hydrogen production systems developed with the tool.

Recommended Student Background

Environmental, Chemical, or Mechanical Engineering
Knowledge of renewable energy systems and hydrogen production
Familiarity with techno-economic modeling and optimization techniques
Experience with Python programming and data analysis

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3-6 months
Internship period
100+
Research Projects
3.5/4
Cumulative GPA
310
Interns a Year