Chemical Engineering M.S

1 Years On Campus Masters Program

Clemson University

Program Overview

The Chemical Engineering M.S. at Clemson University is designed for students who want to build advanced expertise in chemical and biomolecular engineering while preparing to tackle complex problems across chemicals, energy, advanced materials, biotechnology, pharmaceuticals, electronics, and other industries. Students can choose a thesis or non-thesis pathway, with strong research opportunities in advanced materials, biotechnology, energy, and chemical and biochemical processing.

Curriculum Structure:

Year 1:

Students build their advanced technical foundation through core courses such as CHE 8030 – Advanced Transport Phenomena, CHE 8040 – Chemical Engineering Thermodynamics, and CHE 8050 – Chemical Engineering Kinetics. They then expand their knowledge through approved technical electives, including coursework from Chemical/Biomolecular Engineering and other disciplines.

Year 2:

Students deepen their specialization through additional 8000-level technical electives and complete the requirements associated with their chosen pathway. Thesis students undertake CHE 8910 – Research, while non-thesis students complete CHE 8010 – Graduate Research Skills & Ethics along with additional advanced coursework, allowing students to develop either research-focused or professionally oriented expertise.

Focus Areas:

Advanced materials, biotechnology, energy, chemical and biochemical processing, green chemistry, molecular modeling and simulation, nanotechnology, drug delivery, polymers, pharmaceuticals, electronic materials, environmental sustainability, food, medicine and petroleum systems.

Learning Outcomes:

Students develop advanced scientific and engineering knowledge, quantitative problem-solving abilities, research skills, technical communication, and the ability to apply chemical engineering principles to complex problems in chemical, biomolecular and related industries. The program also develops specialized expertise through research and advanced technical electives.

Professional Alignment (Accreditation):

Clemson's B.S. in Chemical Engineering is accredited by the Engineering Accreditation Commission of ABET under the Chemical, Biochemical, Biomolecular and Similarly Named Engineering Programs criteria. Clemson's official accreditation information specifically identifies the B.S. program as ABET-accredited; it does not list the Chemical Engineering M.S. as separately ABET-accredited.

Reputation (Employability & Department Recognition):

Clemson's Chemical and Biomolecular Engineering department reports that 80% of its seniors enter the workforce after graduation, while 20% continue academic preparation in areas such as law, medicine and dentistry. The department also reports a #8 ranking by College Factual for Chemical Engineering in the Southeast Region, along with strong career-service, internship and co-op support through Clemson's Center for Career and Professional Development.

The department's career outlook highlights opportunities across energy, biotechnology, nanotechnology, pharmaceuticals, advanced materials, environmental sustainability and chemical manufacturing, giving graduates several directions for applying their advanced chemical engineering training.

Experiential Learning (Research, Projects, Internships etc.)

The Chemical Engineering M.S. at Clemson University gives students direct access to research-driven and hands-on learning within the Department of Chemical and Biomolecular Engineering. Because ChBE occupies Earle Hall, students can move easily between classrooms and research laboratories, while graduate students can work alongside faculty in experimental wet labs and computational research environments across areas such as advanced materials, biotechnology, bioseparations, molecular simulation, energy and chemical processing.

The program's thesis option provides particularly strong scope for independent research, while the department's small size encourages close interaction with faculty. Students can also develop practical engineering and teamwork skills through facilities such as the Unit Operations Laboratory and participate in interdisciplinary research and Creative Inquiry projects across Clemson.

Students have access to a range of program-specific research environments and resources:

Earle Hall: The department occupies the entire building, which contains classrooms, laboratories, faculty offices and student spaces, allowing students to work close to active Chemical and Biomolecular Engineering research.
Unit Operations Laboratory: Students work with equipment representative of industrial chemical-processing environments, with an emphasis on teamwork, experimental planning and communicating results.
Faculty Research Laboratories: Clemson's ChBE research labs cover areas including advanced materials, polymers, chemical and biomolecular separations, energy storage, sensors, biotechnology and biomedical applications.
Computational Research: The department conducts computational work in areas including molecular simulation and visual process modeling, giving graduate students opportunities to work beyond conventional wet-lab research.
Advanced Materials Innovation Complex (AMIC): This 143,000-square-foot facility provides advanced research and teaching laboratories, collaborative spaces and resources supporting materials science, chemistry and chemical and biomolecular engineering.
Palmetto Cluster: Clemson's university-wide high-performance computing environment provides powerful multi-core computing resources for research applications, supporting computational research conducted across CECAS.
Advanced Materials Research Laboratory (AMRL): This Clemson research facility includes major capabilities in optoelectronics, chemistry and materials science, including an electron microscopy facility that can support advanced materials research.
Creative Inquiry: Clemson's interdisciplinary Creative Inquiry projects provide opportunities to collaborate with researchers and students outside traditional Chemical Engineering areas, including projects involving environmental science, health and natural sciences.
Research Areas: Graduate research can be aligned with advanced materials, energy, biotechnology, chemical processing, green chemistry, molecular modeling and simulation, nanotechnology and drug delivery.
Research Safety Training: Graduate students working in research laboratories receive safety training appropriate to their research activities and laboratory hazards before beginning research work.

Progression & Future Opportunities

The Chemical Engineering M.S. at Clemson University prepares graduates to apply advanced chemical engineering principles to complex problems across chemical, biomolecular and associated industries, with both thesis and non-thesis pathways available. Clemson identifies career opportunities across chemicals, biotechnology, pharmaceuticals, food production and processing, manufacturing, consulting, and fossil, nuclear and renewable energy, while its graduate program also provides a route into doctoral-level research.

Typical job roles: Chemical Engineer, Process Engineer, Research & Development Engineer, Process Development Engineer.

Students can strengthen their transition from graduate study into professional roles through Clemson's career infrastructure and industry connections:

Career support: Clemson's Center for Career and Professional Development (CCPD) provides career counselling, job and internship resources, employer connections and access to ClemsonJobLink, where students can search opportunities and connect with recruiters.
Career fairs and recruiting: Clemson's Fall 2026 Career Fair includes dedicated days for technology, manufacturing, engineering and science employers, as well as a day specifically open to graduate/professional students.
Internships and co-op: The CCPD supports off-campus internships and cooperative education, helping students gain professional experience and build connections with employers before graduation.
Salary information: Clemson's Chemical and Biomolecular Engineering department reports a present starting annual salary average of $70,000, with a reported range of $55,000–$105,000 for chemical engineering career outcomes. This figure is presented by the department for its chemical engineering programs and is not identified as M.S.-only data.
Industry exposure: Clemson's CCPD actively connects employers with students for full-time and internship opportunities, with recruiting activity spanning engineering, manufacturing, technology and science employers.
Accreditation value: Clemson's B.S. in Chemical Engineering is ABET-accredited by the Engineering Accreditation Commission. The university's official accreditation page does not separately identify the M.S. as ABET-accredited, so the M.S. should not be described as independently ABET-accredited.
Graduate outcomes: Clemson describes Chemical Engineering graduates as being sought across chemicals, biotechnology, pharmaceuticals, business consulting, food production and processing, manufacturing, and energy, giving M.S. graduates multiple industry directions for applying their advanced training.

Further Academic Progression: After completing the M.S., students can continue into Clemson's Ph.D. in Chemical Engineering, which offers research opportunities in areas including advanced materials, biotechnology, energy, and chemical and biochemical processing. Clemson also allows eligible students to pursue the Ph.D. directly after a B.S., while the M.S. provides an additional route for developing advanced research expertise before doctoral study