Applied Sciences

The Master of Science in Chemistry (Non-Thesis) at Colorado School of Mines is designed for you if you want to deepen your chemistry expertise without committing to a research thesis. This on-campus program strengthens your bachelor’s degree by expanding your technical foundation, sharpening your problem-solving skills and preparing you to apply chemistry in practical, industry-driven settings.

You will gain advanced knowledge across core areas of chemistry while developing the ability to analyze complex problems, evaluate data and communicate technical ideas clearly. The non-thesis format allows you to focus on coursework and applied learning, making it a strong fit if you are aiming to advance professionally, pivot into a new role or prepare for technical leadership.

Chemistry remains central to industries ranging from materials and manufacturing to pharmaceuticals, energy and environmental systems. Employers seek professionals who can connect molecular-level understanding to real-world challenges. Mines stands apart by grounding chemistry education in engineering thinking and applied science, ensuring you graduate with skills that translate directly to the workplace.

This program is rigorous, practical and efficient. You graduate with advanced training that reflects how chemistry is practiced today, backed by the reputation of Mines as a leader in engineering and applied science education.

Program Detail

The curriculum for the Master of Science in Chemistry (Non-Thesis) is designed to provide broad, advanced training across core areas of the discipline. Through a combination of required courses and electives, you will deepen your understanding of fundamental chemistry while selecting coursework that aligns with your professional interests and career goals.

Coursework typically includes advanced classes in areas such as analytical chemistry, physical chemistry, inorganic chemistry, organic chemistry and materials-related topics. Electives allow you to explore interdisciplinary applications connected to engineering, data analysis or applied sciences across Mines.

While a formal thesis is not required, you may engage in project-based learning, laboratory-intensive courses or independent study options depending on your academic plan. These experiences help you strengthen experimental design skills, data interpretation and technical communication.

This program is offered on campus, giving you direct access to faculty expertise, teaching laboratories and research-grade instrumentation. The on-campus environment supports collaboration with peers, close interaction with faculty and immersion in the Mines academic community.

Program Opportunities

Experiential learning:

Many courses include laboratory-based work that emphasizes hands-on experimentation, data analysis and practical problem solving aligned with industry needs.

Interdisciplinary collaboration:

You can take advantage of connections across engineering and applied science departments at Mines, allowing you to apply chemistry in broader technical contexts.

Industry preparation:

The non-thesis structure supports career-focused goals, helping you build technical depth and professional skills valued by employers across multiple sectors.

Average starting salary for recent program graduates is $67,500. Learn more about Mines' comprehensive career development resources and this degree's salary potential.

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Complex systems, massive datasets and computation-driven decisions define many of today’s most critical industries. The Master of Science in Applied Mathematics and Statistics (Non-Thesis) at Colorado School of Mines prepares you to meet those challenges as a rigorous mathematical and statistical problem solver that organizations can rely on when the stakes are high.

At Mines, applied mathematics and statistics are embedded in real-world domains where quantitative insight drives progress: data systems, subsurface modeling, critical minerals, advanced materials, space resources, infrastructure and construction engineering and environmental monitoring. The skills gained at Mines become a career multiplier. Graduating with a Master of Science in Applied Mathematics and Statistics (Non-Thesis) means more than mastering theory—you’ll be prepared to deliver analysis that informs strategy, strengthens resilience and stands up to real-world scrutiny.

Program Detail

The Master of Science in Applied Mathematics and Statistics (Non-Thesis) offers two paths to specialization and two approaches to complex problems, both grounded in mathematics but addressing different types of questions.

Both the computational and applied mathematics and statistics specialties of this degree option require 30 credits of coursework. The curriculum structure consists of a set of required courses, a pair of math electives and general elective courses that serve to supplement your technical interests.

Computational and Applied Mathematics Specialization

The Computational and Applied Mathematics option prepares you for careers in engineering simulation, scientific computing, physics-based AI, aerospace, energy systems and computational modeling. The insights you gain enable you to approximate, simulate and compute solutions using mathematics and high-performance computing. Your tools include advanced linear algebra, partial differential equations and numerical methods.

These enable mathematical problem solvers to describe how quantities change over space and time, such as heat flow, wave propagation, fluid movement or stress in materials. The insights drive the computational tools that turn equations into working simulations and machine-learning models with thousands or millions of variables. Imagine one day solving challenges such as: How will this reservoir, structure or physical system behave over time? How do we design or optimize a system under constraints? How do we simulate reality accurately and efficiently on a computer?

Statistics Specialization

The Statistics option prepares you for careers in data science, machine learning, analytics, risk analysis, environmental statistics and AI-enabled decision making. The insights you gain enable you to learn from data, quantify uncertainty and make reliable predictions, especially when the underlying system is complex, noisy or only partially understood.

Your tools include linear models, mathematical statistics and statistical learning. They explain why patterns occur and connect statistics to modern machine learning, with a focus on prediction, model selection and overfitting avoidance. Imagine one day solving questions such as: What patterns or signals are hidden in this data? How certain are we about this prediction or decision? How do we build models that generalize well to new data?

Nationally, demand is especially strong for data-intensive and optimization-centric roles. Median starting salary for recent graduates of this program is $90,000.

Learn more about Mines' comprehensive career development resources and this degree's salary potential.

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Be ready to embrace – and lead – the multidisciplinary challenges of tomorrow in robotics, biomechanics, materials or energy systems with a Master of Science in Mechanical Engineering (Non-Thesis) from Colorado School of Mines.

At Mines, you will master new skills, work in interdisciplinary teams and learn to reason your way from analysis to synthesis and bring others along. Reimagine and accelerate your careers by acquiring specialized, industry-ready problem-solving skills, hands-on experience and a strong professional network.

If you’re looking for a graduate degree based on hands-on learning and one that turns theory into practice by solving real-world engineering problems, you’ve come to the right place. 

Program Details

The Master of Science in Mechanical Engineering (Non-Thesis) builds on a rigorous foundation of solid mechanics, fluid dynamics and thermodynamics, bridging the gap between theoretical modeling and industrial-scale implementation and preparing you to tackle a wide array of multidisciplinary technical engineering challenges.

The on-campus degree provides access to innovative research experiences to complement rich classroom learning in four focus areas: biomechanics, robotics and automation, solid mechanics, materials, and manufacturing, and thermal fluid and energy systems. The online degree supports your professional goals with a schedule that fits your life, with the exact same rigor, degree requirements, instructors, and classes as in our on-campus program. Both require 30 credit hours of flexible, career-focused coursework.

Median salary for recent program graduates is $85,000. Learn more about Mines' comprehensive career development resources and this degree's salary potential.

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If you’re ready to deepen your expertise and expand your professional impact, the Master of Science in Electrical Engineering (Non-Thesis) from Colorado School of Mines offers a powerful next step. Designed for working professionals, this 30-credit program delivers advanced technical depth in high-demand areas such as antennas and wireless communications, power and energy systems, signal processing, control systems and information sciences, positioning you at the forefront of innovation.

At Mines, you’ll help shape the systems that power and connect the modern world. From smart grid technologies and next-generation communications to advanced sensing and digital infrastructure, you’ll gain the expertise to contribute to industries that define the future, including aerospace, quantum, defense, semiconductors, biomedical devices, remote sensing and more.

This professionally focused, non-thesis degree emphasizes rigorous coursework and real-world application, allowing you to tailor your studies to your goals while maintaining career momentum. You’ll learn from internationally recognized faculty who are deeply engaged with industry partners, national laboratories and leading research centers, bringing current challenges and emerging technologies directly into the classroom. You’ll graduate with advanced technical skills, an expanded professional network and the ability to lead in complex, high-impact engineering environments.

Program Detail

The Master of Science in Electrical Engineering (Non-Thesis) is designed to prepare students for technical careers in industry or government. Requiring 30 credits of coursework, some of which are available to be taken online, you can choose between three specialized tracks: antennas and wireless communications, power and energy systems and information and systems sciences.

The non-thesis option is well-suited for engineers who want to advance technical expertise through structured coursework and can be an excellent pathway to strengthen your credentials and capabilities for leadership or specialized technical roles.

Median salary for recent graduates of this program is $96,600. Learn more about Mines' comprehensive career development resources and this degree's salary potential.

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Precision and optimization will drive the future of chemical engineering as researchers and industry gather interdisciplinary teams – molecular biologists, chemical engineers, process engineers, chemists, data scientists and supply chain experts – to advance green materials and scale sustainable solutions. A Master of Science in Chemical Engineering (Non-Thesis) from Colorado School of Mines is distinguished by research strengths in renewable and unconventional energy, advanced materials, and bioengineering and biotechnology, with each area connected to top national and industry partners. You will be prepared to step into the future of chemical engineering, thanks to a strong emphasis on computational methods and atomistic simulation that reflects Mines’ advanced capabilities in process modeling and data-driven engineering. Your core competencies will include familiarity with predictive algorithms and machine learning models that optimize chemical processes, improve reaction prediction and enhance measurement precision. Your course knowledge, research opportunities and project work with faculty and industry will expose you to the ways that chemical engineers are managing automated, AI-optimized control loops and integrating new hardware and software for dynamic process optimization and risk reduction.

Program Detail

The Master of Science in Chemical Engineering (Non-Thesis) builds on a rigorous foundation of thermodynamics, transport phenomena and kinetics, bridging the gap between molecular science and industrial scale-up. By integrating systems biology with process intensification, the program develops the technical precision needed to lead in the global bio-economy. 

You will master multiscale modeling and bioprocess design, gaining the ability to optimize complex chemical reactors and engineer high-value biological products. Graduates develop the technical expertise and quantitative problem-solving skills required to lead multidisciplinary teams in the pharmaceutical, energy and materials sectors, ensuring that lab-scale discoveries transition into sustainable, cost-effective industrial solutions.

Program Opportunities

Cutting-Edge Curriculum

The future of chemical engineering is being written in code as much as in chemistry. At Mines, we prioritize the integration of atomistic simulation and process-level modeling into the core of your graduate training. You won't just study traditional thermodynamics and transport. You will master the predictive algorithms and machine learning models used to optimize reaction kinetics and automate industrial control loops. This data-driven approach ensures you are prepared to manage the AI-optimized "smart" refineries and bioprocessing plants of tomorrow.

Participate in World-Renowned Research

Your education is enhanced by direct access to some of the world’s most advanced energy and material research centers and national lab partnerships. You’ll have opportunities to join the world’s largest hydrate-focused lab to pioneer solutions in CO₂ sequestration and energy production, leverage our strategic partnership with the National Laboratory of the Rockies (NLR) to work on joint projects related to the nation’s energy priorities, engage in cutting-edge electrochemistry research, including NASA-sponsored projects on solid-oxide fuel cells, and collaborate across disciplines to develop the next generation of medical devices and biocompatible polymers.

Professional Development Organizations

Build a life-long network through the Chemical Engineering Graduate Association and American Institute of Chemical Engineers, connecting you to industry giants like Amgen, ExxonMobil, Pfizer and Intel. The Chemical Engineering Graduate Association is the primary professional group for Mines chemical engineering graduate students, organizing professional development, mentorship, academic and community-building events and acts as a liaison between graduate students, faculty and administration. Connect with other chemical engineering students of all levels in the Mines chapter of the American Institute of Chemical Engineers.

Average starting salary for recent program graduates is $90,450. Learn more about Mines' comprehensive career development resources and this degree's salary potential.

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The Master of Science in Applied Physics (Thesis) program at Colorado School of Mines is designed to offer advanced training in physics that connects theory to real-world applications. This program is a strong fit if you want to apply physical principles to solve practical problems in engineering, materials, energy systems and advanced technology.

You will build high-level skills in experimental methods, computational modeling and quantitative analysis. Applied physics plays a critical role across industries where innovation depends on understanding how materials, devices and systems behave under real conditions. Employers value professionals who can move between theory, experiment and application with confidence.

At Mines, applied physics is grounded in hands-on research and close faculty mentorship. The thesis requirement allows you to conduct original research, develop technical depth and graduate with experience that reflects how physics is used in professional and research environments. This program prepares you to contribute immediately to technical roles or pursue doctoral studies with strong preparation.

Program Detail

This on-campus master’s thesis program combines advanced coursework with independent research. You will take graduate-level classes in applied physics and related areas such as materials physics, solid-state physics, optics, computational physics and experimental techniques. Course selections are flexible and can be tailored to your research interests and career goals.

For your thesis, you will work closely with a faculty advisor to identify a research topic, design experiments or models and produce original results. The process culminates in a written thesis and oral defense. Research often connects physics to engineering and applied science challenges, giving you experience that aligns with industry and academic expectations.

Program Opportunities

Research-driven learning:

You participate in faculty-driven research that applies physics to materials, devices and complex systems.

Interdisciplinary collaboration:

Applied physics at Mines frequently intersects with engineering, materials science and applied mathematics.

Laboratory and computational experience:

You gain hands-on experience with experimental setups, modeling tools and data analysis techniques used in professional settings.

Average starting salary for recent program graduates $80,000. Learn more about Mines' comprehensive career development resources and this degree's salary potential.

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Physics is the foundation for understanding how the world works, from the smallest scales of matter to large, complex systems. It underpins advances across engineering, materials, electronics and instrumentation. As technologies become more precise and data-driven, organizations need physics experts who can do more than apply known equations. They need researchers who can design experiments, develop new models and defend results with clarity and rigor.

A PhD in Physics from Colorado School of Mines prepares you to contribute at the highest level. This program is ideal for those who want to gain new insights into classical and modern physics principles while keeping your work connected to applied science and engineering. Mines is known for its applied learning focus, and that perspective shapes physics research here. Your work will emphasize measurable phenomena, thorough experimentation and modeling and relevance to real systems. You will gain the depth needed to advance fundamental understanding and the practical judgment required to make that understanding useful.

Program Overview

The Physics PhD is an on-campus program, designed for those who want to pursue original research that advances understanding of physics while connecting to applied scientific and engineering questions.

This program builds on your bachelor’s degree or master’s degree by shifting your role from learning established theory to creating new knowledge. You will deepen your foundation in core physics while tailoring coursework to support your dissertation research. Coursework is flexible by design and intended to strengthen, not compete with, your research.

What you’ll study and do

Your coursework includes advanced classes in core physics areas such as classical mechanics, electromagnetism, quantum mechanics and statistical physics, along with specialized electives aligned with your research focus. Course sizes are relatively small, and students can receive individualized attention from faculty members.

The center of the program is independent research. Research methods may include laboratory experimentation, analytical modeling, numerical simulation or a combination of approaches. You will work closely with a faculty advisor and committee and complete proposal, candidacy and dissertation defense milestones. Weekly departmental seminars assist with the process of identifying a thesis topic.

What it takes to complete the PhD at Mines

Completion of the PhD requires advanced coursework, successful completion of qualifying and candidacy requirements and a defended dissertation. As an on-campus program, the experience emphasizes immersion in research groups, regular participation in seminars and collaboration across disciplines. Mines’ applied science environment ensures your work stays grounded in physical reality and measurable outcomes.

You and Mines PhD: A Right Fit?

You may be a strong fit for this program if you:

• Enjoy deep theoretical or experimental problem solving
• Are motivated by unanswered questions and careful validation
• Have strong preparation in physics, mathematics or a closely related field

Median salary for recent program graduates $111,900. Learn more about Mines' comprehensive career development resources and this degree's salary potential.

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Leverage chemistry to explore and protect the systems people depend on—clean water, safe food, critical minerals and materials and a changing climate – with a Master of Science in Geochemistry (Thesis) at Colorado School of Mines. 

Geochemists work where Earth processes meet human needs, turning field samples and laboratory data into decisions that matter. You will combine traditional geochemical field and laboratory methods with modern computational, analytical and data-driven tools used by practicing geochemists in industry and government.

As a geochemist, you will tackle complex real-world problems that directly affect environmental health, resource security and infrastructure resilience while building in-demand technical skills that support long-term career stability and advancement. With a Master of Science in Geochemistry (Thesis) from Mines, you will be prepared to lead technically complex projects that require chemical insight, regulatory awareness and defensible data analysis, leveraging modern computational tools to deliver actionable solutions.

Program Detail

The Master in Science in Geochemistry (Thesis) builds on a rigorous foundation of thermodynamics and chemical kinetics, bridging the gap between geological sampling and quantitative modeling. By integrating isotope geochemistry with environmental mineralogy, the program develops the technical precision needed to address global resource challenges. Specialized tracks include:

• Geochemistry: Focus on the chemical evolution of the Earth’s crust and mantle, geochemistry of energy and mineral resources, chemical mineralogy and more. 
• Environmental geochemistry: Focus on the coupled chemical and biological processes of the Earth’s biosphere and the changes caused by human activities

You will master reactive transport modeling and analytical instrumentation, gaining the ability to predict contaminant migration and characterize mineral deposits with molecular-level accuracy. Graduates develop the technical expertise and data-driven decision-making skills required to lead multidisciplinary teams in the mining, environmental consulting, and energy sectors, ensuring sustainable resource management.

In the Master in Science in Geochemistry (Thesis), you will complete 36 credits of graduate-level coursework. Students will also complete a thesis based on original research they conduct and give a public seminar on their research. 

Median salary for recent program graduates is $72,000. Learn more about Mines' comprehensive career development resources and this degree's salary potential.

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