What do you get at Tufts? A rigorous engineering education in a unique environment that blends the intellectual and technological resources of a world-class research university with the strengths of a top-ranked liberal arts college.
As a chemical engineer or bioengineer, you’ll work on the forefront of new emerging technologies. You’ll help conceive and design the many processes that produce, transform, and transport our world’s materials—and you’ll be involved with the development every step of the way, from experimentation in the laboratory to implementation of technology and full-scale production.
At Tufts, engineering is so much more than a discipline—it’s a tight-knit community of students, faculty, and staff. Collaboration is not only common, it’s key. And you can count on career advice and network connections from experts in the field.
Here are some great examples of student-faculty collaboration in our department:
Sources: study.com, axial.acs.org, zwitterco.com
Professor Matt Panzer teaches a graduate-level course focused on the physical chemistry of common substances:
“I think it's interesting because we study things like surfactants. They’re used in a lot of everyday products, like soaps and detergents, so students can easily identify with them.”
© Tufts University 2023
The Tufts chemical engineering and bioengineering programs are distinguished by opportunities to work closely with faculty every step of the way. Graduate students have the chance to collaborate with and learn from some of the most renowned experts in the country, all while seamlessly transitioning from graduate studies to a full-time career.
As a chemical engineer or bioengineer, you’ll apply the principles of chemistry, biology, and engineering to improve the production and use of chemicals, medicine, food, and many other products. With your degree, you’ll help design processes and equipment for large-scale manufacturing of materials, test production methods and byproducts treatment, direct facility operations, and more.
A master’s in chemical engineering or bioengineering from Tufts builds upon the foundation of an undergraduate engineering education. All chemical engineering students will gain an in-depth understanding of molecular thermodynamics, transport phenomena, and chemical kinetics and reactor engineering. Bioengineering students will study molecular biotechnology and molecular biology before focusing within one of six specialized tracks. You’ll have the opportunity to pursue electives covering the topics you’re most interested in, from surface and colloid chemistry to bioinformatics to innovation and management.
At Tufts, you’ll work with world-renowned engineering faculty at the top of their disciplines. Combine classroom teaching and hands-on learning to earn a degree that will prepare you for success. Take advantage of Tufts’ dedicated career and networking resources, explore the Tufts campus just a few miles from the high-tech hubs of Boston and Cambridge, and get ready for the next step in your professional life.
For more information about the MS in Chemical Engineering or MS in Bioengineering program, including application requirements, please complete the form below.
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January 15
November 15
Applicants are not required to submit GRE scores when applying to the Chemical Engineering or Bioengineering program.
At Tufts, hone your innovation, leadership, and management skills alongside your technical skills and graduate ready to lead. On-campus students can apply to our dual degree program and earn an MS in Innovation and Management and an MS offered by one of the six academic departments in the School of Engineering. Earn both degrees in an accelerated timeframe and at a reduced cost.
The School of Engineering’s Graduate Cooperative Education (Co-Op) Program offers graduate students numerous advantages specific to the engineering discipline. Engineering co-op programs provide students with the opportunity to apply the theoretical principles they have learned in their coursework to real-world engineering projects. This practical experience enhances their understanding of engineering concepts and prepares them for the challenges they may face in their future careers.