Ceramic Engineering
Bachelor of Science
Delivery Options
Fall 2027 Deadline
Priority: November 1
Regular: January 15
Late: April 1
Department
Why Ceramic Engineering?
While all engineering disciplines play a role in improving how people live, work and play, only ceramic engineering places you at one of the most transformative intersections in modern science. Whether your career path leads to clean-energy breakthroughs, bioceramics, hypersonic aerospace applications, microelectronics or energy conversion and storage, you will make our world safer, cleaner and more connected. Next-generation ceramic materials will accelerate quantum computing, unleash the potential of additive manufacturing and produce the first wave of intelligent, self-diagnosing and adaptive materials for building, aerospace and medicine.
Program Overview
The Bachelor of Science in Ceramic Engineering from Mines provides you with the engineering rigor, industry exposure and hands-on experience to thrive in the rapidly growing and evolving advanced and technical ceramics industry.
Projections show that the ceramics industry will nearly double in size (to $70 billion) by 2035, driven by demand for new and specialized materials with superior thermal resistance, hardness and chemical stability in sectors such as aerospace, electronics, automotive and healthcare.
As a Mines ceramic engineering major, you will meet a need for engineers who can handle high-performance materials applications in demanding environments such as electric vehicles, advanced electronics, renewable energy and medical devices. You will also gain insights into larger forces, such as additive manufacturing, nanotechnology and clean energy solutions, that are advancing the development and manufacturing of next-generation ceramic materials.
Program Focus
The Bachelor of Science in Ceramic Engineering from Mines provides undergraduate students with fundamental knowledge and specific skills for careers in advanced and technical ceramics. The program builds on long-standing materials science expertise, strong industry partnerships and cutting-edge ceramics research facilities.
You will gain specialized knowledge in ceramic processing, materials science and engineering, such as thermal stability, electrical conductivity, corrosion resistance, toughness and processing techniques (sintering, powder synthesis, additive manufacturing). With these skills, you will graduate ready to help industry leaders further develop technical ceramics to replace metals and polymers in critical applications and next-generation technologies, such as solid-state batteries, sensors and implants.
Program Design/Options
Summer Field Session
All Mines ceramic engineering students take part in a summer field session that combines hands-on learning with real world exposure. During this experience, students:
- explore how advanced materials are created and processed
- learn how these materials behave and are used in everyday products
- see how manufacturing works at an industrial scale
The session includes interactive lab projects and visits to working facilities, giving students a clear picture of how classroom learning connects to real careers.
The Department of Metallurgical and Materials Engineering offers many paid research opportunities to interested undergraduate students, part of a broader set of experiential learning opportunities that bridge theory and practice across the materials science and engineering ecosystem, such as hands-on laboratory classes. Starting in the second year, ceramic engineering students complete four core lab courses focusing on ceramic processing, sintering, glass science and the thermal, mechanical and electrical properties of ceramics. You will engage in research projects alongside world-class faculty and explore the cutting edge of technical ceramics development.
You’ll gain exposure to industry-relevant technologies and problem-solving in a professional environment and have access to advanced materials characterization tools and makerspaces, enhancing your hands-on training and supporting independent or faculty-led projects. The foundry enables large-scale experimentation with ceramics and related materials, teaching practical manufacturing skills essential for industry. The on-campus hot shop enables you to integrate glass science with technical ceramics. You will gain direct experience in glass processing and forming techniques, exploring glass as a functional and structural material. Free Pour Friday is a weekly student gathering to learn about hands-on metallurgy by creating objects from liquid aluminum and casts. The hot shop also offers a monthly sign-up for Soda Lime Saturday, where participants can make a glass item.
Mines Material Advantage Chapter gives you access to four leading materials organizations: the American Ceramic Society, the Association for Iron and Steel Technology, ASM International and The Minerals, Metals and Materials Society and Mines Material Advantage Chapter and hosts weekly lunch meetings where students hear from academics and industry professionals. Attend various industry and student panels and participate in end-of-the-semester course feedback sessions. The group has won first place in the national Materials Bowl competition eight times in the 2000s.
Salaries and Career Outlook
Program Curriculum
View Academic CatalogFaculty Expertise
Meet three faculty experts whose research and industry experience guide students in understanding and applying the science and engineering of glass science, electronic ceramics and structural materials.
World-Class Labs, Centers and Facilities
The Advanced Steel Processing and Products Research Center (ASPPRC) is dedicated to attaining excellence in the study of steel. Led by Professor Kip Findley, ASPPRC focuses on bar and forging steels; sheet and coated steels; and plate and hot rolled steels.
The Colorado Center for Advanced Ceramics (CCAC) serves as a national resource of expertise and facilities for industry to make decisions on the synthesis, processing, and performance of advanced ceramics and composites. Led by Professor Ivar Reimanis, the center is a focal point for exciting technological developments in advanced ceramics.
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.
The Mines Hot Shop houses equipment for casting, glassblowing and forging and hosts open opportunities for Mines students of all levels. The foundry can accommodate a wide range of mold making and casting activities, including sand casting, investment casting (lost wax), lost foam, and permanent mold in tin, aluminum, copper (bronze/brass) and iron (steel).
Frequently Asked Questions
What is the value of a graduate degree in ceramic engineering?
A graduate degree in ceramic engineering prepares you to design, engineer and optimize advanced ceramic and materials systems that perform under extreme conditions. At Mines, ceramic engineering is taught as an applied discipline grounded in materials science processing and performance. Students integrate fundamentals of structure processing and properties with hands-on laboratory work and computational tools. Graduates are prepared to translate materials innovation into real-world applications across energy aerospace manufacturing electronics and defense.
What advances are shaping the field of ceramic engineering?
Ceramic engineering is advancing rapidly as materials are engineered for higher performance, greater reliability and new functional capabilities. Key advances include:
- Advanced ceramic processing and manufacturing including additive and hybrid techniques
- Materials design for extreme environments such as high temperature high pressure and corrosive conditions
- Functional ceramics for energy electronics sensing and biomedical applications
- Computational materials science linking microstructure to performance
- Integration of ceramics into complex engineered systems and composites
What career options will I have with a degree in ceramic engineering?
Graduates pursue technical and engineering roles focused on materials development processing and performance including:
- Ceramic or materials engineer
- Process development or manufacturing engineer
- Research and development scientist
- Quality and reliability engineer
- Failure analysis or characterization specialist
- Materials modeling or simulation engineer
These roles emphasize translating materials science into manufacturable high-performance products.
What industries hire ceramic engineering graduates?
Ceramic engineering graduates are employed across industries that rely on advanced materials and high-performance components including:
- Aerospace and defense
- Energy and power generation
- Advanced manufacturing and industrial systems
- Electronics and semiconductor technologies
- Automotive and transportation
- Medical devices and biomaterials
Mines’ strong materials focus enables graduates to contribute immediately in technically demanding environments.>
What are the current research and applied directions in ceramic engineering?
Today’s ceramic engineering research focuses on solving complex materials challenges through integrated experimental and computational approaches. Key areas include:
- Structure–processing–property relationships in advanced ceramics
- High-temperature and structural ceramics
- Functional and electronic ceramics
- Additive manufacturing and advanced processing methods
- Materials reliability degradation and lifetime prediction
- Energy and sustainability applications
At Mines these efforts align closely with national priorities in advanced manufacturing energy systems infrastructure resilience and next-generation materials technologies.
Featured Alumni
Meet Jack Dorsey ’25, Ceramic Engineering
You can go work for Corning and make glass, or work for Lockheed Martin or NASA and make aerospace tiles, or you can work in tech and make the next quantum computer. It’s unique to be a ceramic engineer—just the applications in the world are amazing.