
Introduction to the course and the industrial technologies presented.
An overview of the systems, including cost ranges and photos.
Learn about the Natural Gas Furnace and Chiller systems. These are fundamental as industrial energy systems.
Download a description of forward contracts for natural gas. Just to get a general idea.
Defining the heating demand and the cooling demand.
Introduction to the course
The lecture teaches important aspects on. electricity demand
Developing the Python model
Printing the optimal solution
Developing the model in GAMS
This is the Python code.
This is the GAMS code.
Introducing the section
Implementing the modelling in Python
Solving the Python model
Implementing the modelling in GAMS
This is the Python code.
This is the GAMS code.
Introducing the lecture
Implementing in Python
Solving in Python
Solving in GAMS
This is the Python code.
This is the GAMS code.
Overview of the course
5 industry case studies for free
WHO I AM: I hold a PhD in Quantitative Economics and Energy from Imperial College London. I teach practical, real-world data science specifically for the energy sector.
REGULAR ENHANCEMENTS: This course is reviewed periodically with updates to reflect the modern energy market.
STUDENT BONUS: Note: Students who enroll in this course will receive access to the Energy Data Scientist community.
What You'll Learn:
How to build mathematical optimization models for industrial energy systems from scratch using Python (Pyomo) and GAMS
How to model and optimize key industrial components: natural gas furnaces, chillers, transformers, batteries, CHP units, and electric heat pumps
How to integrate multiple energy technologies into complex, multi-stage optimization problems
How to handle real-world constraints including forward contracts, energy demand patterns, and operational limits
How to solve industrial scheduling and dispatch problems to minimize costs while meeting heating/cooling demands
How to transition seamlessly between Python and GAMS implementations for the same optimization problem
How to interpret optimization results and make data-driven decisions for industrial energy management
Perfect For:
Industrial engineers and energy system analysts
Operations research professionals in manufacturing and utilities
Energy consultants and sustainability managers
Process engineers in chemical plants and manufacturing facilities
Data scientists working in energy and industrial sectors
Graduate students in operations research, industrial engineering, or energy systems
Energy managers seeking to optimize facility operations
Technical professionals transitioning to energy optimization roles
Why This Matters:
Industrial facilities account for 30% of global energy consumption, and optimizing their energy systems can reduce costs by 15-40% while cutting emissions dramatically. As industries face carbon regulations, volatile energy prices, and sustainability targets, the ability to model and optimize complex energy systems becomes mission-critical. Companies need professionals who can build optimization models that integrate renewable energy, storage, and traditional systems while managing real-time pricing and demand fluctuations. This skill set is essential for the $2 trillion industrial decarbonization market. Whether you're optimizing a single manufacturing plant or designing district energy systems, these modeling skills position you for high-impact roles in energy consulting ($120,000-180,000), industrial optimization ($130,000-200,000), and sustainability leadership ($150,000-250,000+). Master the tools that Fortune 500 companies use to save millions in energy costs annually.