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Earth Resources Science and Engineering

Doctor of Philosophy

Delivery Options

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Fall 2026 Deadline

Priority: December 15th
Domestic: July 1st
International: March 1st

Department

Why study this degree at Mines?

Earth resources power everything from infrastructure and energy systems to the technologies that define modern life. But finding, developing and managing those resources requires a deep understanding of the subsurface, integration across engineering systems and the ability to make responsible, high-stakes decisions with limited information. That shift is driving demand for experts who can move beyond analysis to generate actionable insights, reduce risk and shape how resource systems are designed and managed.

A PhD in Earth Resources Science and Engineering from Colorado School of Mines will position you to lead in this space. This program will challenge you to build and apply new knowledge in real-world contexts. You’ll learn to connect geology, engineering, data and systems thinking to evaluate complex resource challenges find cutting-edge solutions that have lasting, positive impacts on communities and society. Your research will be grounded in applied, practical solutions, focused on how resources are discovered, developed and managed over time.

If you want to set the direction for how the world discovers, develops and sustains its resources, this program equips you to lead with authority.

Program Overview

The PhD in Earth Resources Science and Engineering is an on-campus doctoral program that could be a great fit for you if you're interested in conducting original research that advances understanding of earth resources and improves how they are engineered and managed.

Rather than relying on established workflows, you will develop the ability to create and test new approaches. The program emphasizes how to define meaningful research questions, apply the right technical methods and validate outcomes with data, analysis and defensible reasoning. As you progress, you'll strengthen your technical expertise and your ability to translate research into insight that matters.

What you'll study and do

This is a research-centered PhD where coursework is designed to reinforce and accelerate your dissertation. You’ll complete advanced courses in earth resources, mining and related engineering areas, with flexibility to align your studies to your research direction. Topics may include rock mechanics, geomechanics, resource evaluation, subsurface modeling, mine systems or data-driven decision-making.

Independent research is the core of the experience. You’ll identify a challenge, design an approach to investigate that problem and produce results that contribute new knowledge to the field. Your work may involve field studies, laboratory experiments, computational modeling, data analysis or integrated systems approaches. Throughout the process, you will collaborate closely with a faculty advisor and committee while progressing through key doctoral milestones, including proposal, candidacy and dissertation defense.

What it takes to complete the PhD at Mines

Earning the degree requires completing advanced coursework, meeting qualifying and candidacy expectations and successfully defending your dissertation. As a full-time, on-campus program, the experience centers on immersion in research, collaboration across disciplines and active participation in technical communities results with real data and translate technical findings into decisions.

A Doctor of Philosophy in Advanced Energy Systems from Colorado School of Mines helps you build that kind of influence. You will learn how to evaluate entire energy pathways from first principles to system performance, then back your conclusions with rigorous research. Because this program is built to be interdisciplinary, you will work across fields like mechanical engineering, applied physics, data analytics and power systems, depending on your research direction. You will also benefit from the program’s close connection with the National Laboratory of the Rockies (NLR), giving you exposure to problems and tools that show up in real projects and real deadlines while working alongside NLR researchers on collaborative projects.

If you want a doctorate that stays grounded in engineering practice while still pushing research boundaries (in the normal, non-buzzword sense), this program is designed for you.

You and Mines PhD: A right fit?

You may be a strong fit for this program if you:
  • Enjoy working with complex subsurface or resource systems
  • Are motivated by open-ended problems with real operational consequences
  • Have strong preparation in mining engineering, geological engineering or a related field

Key Program Research Groups

Research in Chemical and Biological Engineering at Mines spans foundational science through applied process design, with strong connections to materials, biological systems, and systems‑level engineering. Doctoral research emphasizes depth, rigor, and practical relevance.

Transport phenomena and reaction engineering

This area examines how momentum, heat, and mass transfer interact with chemical reactions to shape system behavior. Research explores transport limits, reaction kinetics, and their influence on performance across length scales. Coursework builds advanced fundamentals, while research approaches include modeling, experimentation, and data analysis. Graduates pursue careers in process development, research and development, and advanced manufacturing.

Process systems engineering and optimization

Research in this area focuses on the design, control, and improvement of complex chemical processes. Topics include process modeling, optimization, and decision‑making under uncertainty. You apply computational tools and mathematical methods to evaluate tradeoffs and improve system performance. Career paths often include system design, operations strategy, and technical leadership roles.

Biological and biomolecular engineering

This field applies engineering principles to biological systems ranging from molecular interactions to full‑scale bioprocesses. Research may involve biological reactions, biomaterials, or bio‑based systems. Methods include laboratory experimentation, modeling, and data‑driven analysis. Graduates work in biotechnology, pharmaceuticals, and research‑focused organizations.

Materials synthesis and processing

Research in this area investigates how materials are designed, synthesized, and processed to achieve targeted performance. Work often focuses on structure–property relationships and the influence of processing conditions. Experimental characterization and modeling are central tools. This expertise supports careers in materials development, advanced manufacturing, and industrial research and development.

Interfacial and multiphase systems

Many engineered processes involve interacting fluids, solids, and gases across multiple phases. Research in this area studies interfacial phenomena and multiphase transport at different scales. Coursework reinforces transport and thermodynamics, while research methods include visualization, experimentation, and simulation. This focus supports work in areas such as reactors, separations, and complex process equipment design.

World-Class Labs, Centers and Facilities

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Edgar Experimental Mine

The Edgar Experimental Mine is a historic silver and gold mine that now serves as an underground classroom and interdisciplinary laboratory for Mines students and researchers. Located just 30 minutes from campus, the mine provides hands-on experience in underground mine surveying, geological mapping, rock fragmentation and blasting, mine ventilation field studies, rock mechanics instrumentation, mine unit operations, mine safety, quantum research and more.

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Explosives Research Laboratory

The Explosives Research Laboratory investigates explosive applications such as rock fragmentation, explosive properties, explosive welding, explosive synthesis and the effect of explosives on structures and humans. Led by Associate Professor Veronica Eliasson, the lab is focused on developing practical solutions for unique applications in partnership with industry and government.

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Kroll Institute for Extractive Metallurgy

The Kroll Institute for Extractive Metallurgy (KIEM) supports the minerals, metals and materials industries through cutting-edge research. Led by Professor Corby Anderson, the institute focuses on the process of extractive metallurgy regardless of application, including processing of waste materials and the development of clean technologies, improved commercial operations, new minerals-based by-products and chemical processing of materials.

Earth Mechanics Institute

The Earth Mechanics Institute is one of the premier rock mechanics laboratories in North America. Led by Professor Jamal Rostami and founded to advance the science of mining and tunnelling, EMI has since broadened its scope to support civil, energy and underground construction projects worldwide.

Faculty Expertise

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Elizabeth Holley

Associate Professor

Sebnem Duzgun profile picture

Sebnem Duzgun

Professor-CH

Jamal Rostami profile picture

Jamal Rostami

Professor-CH

Salary Outlook

Average starting salary for recent program graduates $95,000. Learn more about Mines' comprehensive career development resources and this degree's salary potential.

Explore Mines Career Center

Employers who seek Mines graduates include

Mining and resource companies

Companies such as Freeport-McMoRan, Newmont, Rio Tinto, BHP, Anglo American

Engineering and consulting firms

Companies such as SRK Consulting, Golder, WSP, Hatch, Wood

Equipment and technology providers

Companies such as Caterpillar, Komatsu, Sandvik, Epiroc

Government and research organizations

Such as U.S. Geological Survey, National Laboratory of the Rockies, Sandia National Laboratories, Los Alamos National Laboratory

A Mines student researcher working with mineral samples, which is part of a broader initiative to secure critical mineral supplies.

Frequently Asked Questions

Why pursue a PhD in earth resources science and engineering?

A PhD prepares you to generate new knowledge and influence how resource systems are engineered and managed. You learn to frame research questions, apply rigorous methods and defend conclusions with evidence.

How applied is this doctoral program?

The program is strongly applied. Research is often connected to real subsurface systems, operational challenges and engineering constraints.

What career paths are common for graduates?

Graduates pursue roles in industry research and development, advanced engineering practice, consulting, government research and academia.

Do you need a master’s degree to apply?

A master’s degree is helpful but not always required. Strong preparation in a relevant engineering or earth science field is essential.

Meet Aditya Juganda '20

I had high expectations when I joined Mines, and the Mining Engineering Department still managed to deliver more than I hoped for. With wide ranges of industry expertise and experience, the professors successfully integrate theory and practical application of each subject.