BSc in Chemical Engineering - Chemical Materials Engineering in Tallahassee United States | Florida State University

The Department of Chemical and Biomedical Engineering has established a sustained focus on integrating biological studies into its academic programs. The growing significance of biological and medical topics in engineering is undeniable. Numerous groundbreaking medical discoveries stem directly from innovations in chemicals, materials, and equipment driven by biochemical and biomedical engineers. Presently, biomedical engineering stands as the most rapidly expanding engineering field in the United States, with expectations for this trend to persist. The biomedical and biotechnology sectors also rank among the fastest-growing industries hiring engineering professionals. Education in biological and biomedical engineering creates a strong foundation for pursuing graduate studies or medical school, particularly given the rising technological sophistication in medical training. The Department currently provides a Bachelor of Science (BS) in Chemical Engineering with three specialization tracks (Chemical Engineering, Biomedical Engineering, and Chemical-Materials Engineering). Completing the BS degree typically requires four to five years. The undergraduate program highlights hands-on experimentation and computational approaches to traditional chemical engineering concepts, featuring lab work in cutting-edge facilities for transport phenomena, unit operations, and process control. Students learn and apply advanced software tools including MATLAB, Simulink, Aspen, and COMSOL Multiphysics.

The Department of Chemical and Biomedical Engineering aspires to be acknowledged as a center of excellence for fundamental and applied education in these fields, while sustaining national research leadership in contemporary engineering challenges. Achieving this goal requires ongoing engagement with key stakeholders: students, industry employers, alumni, faculty, the university, the community, ABET, and professional organizations. Chemical engineering involves creating, implementing, and managing processes where materials undergo chemical, biological, or physical transformations. Chemical engineers perform analysis, design, supervision, and optimization of chemical processes across research, pilot projects, and industrial settings. Career opportunities span inorganic chemicals (acids, alkalis, pigments), organic compounds (petrochemicals, polymers, pharmaceuticals), biological products (enzymes, vaccines), and advanced materials (ceramics, biomaterials). Chemical engineering graduates possess exceptional versatility, with career paths in production, operations, R&D, or advanced studies in medicine, law, or various engineering and scientific fields.
Chemical-Materials Engineering. Chemical engineers systematically investigate molecular structures and material behaviors across solid, liquid, and gaseous states to formulate comprehensive models of material properties. These models enable the design and optimization of industrial processes that achieve targeted chemical and physical transformations. This continuous interaction between microscopic understanding and macroscopic applications represents a distinctive hallmark of chemical engineering.