Chemical & Biomolecular Engineering, MSE

The Chemical and Biomolecular Engineering master's is for students who wish to prepare themselves for research and development activities by obtaining a more solid foundation in the principles of chemical and biomolecular engineering. At the same time, limited specialization in one of several fields, such as fluid mechanics, thermodynamics, control, design, bioengineering, polymer engineering, heat transfer, or computer applications is possible.


The degree and major requirements displayed are intended as a guide for students entering in the Fall of 2026 and later. Students should consult with their academic program regarding final certifications and requirements for graduation.


Master's Degree Requirements

Core Courses
CBE 6180Advanced Molecular Thermodynamics1
CBE 6210Advanced Chemical Kinetics and Reactor Design1
CBE 6400Transport Processes I (Fall)1
ENM 5100Foundations of Engineering Mathematics - I 11
Chemical and Biomolecular Engineering Electives
5000-level CBE courses2
Electives
Engineering or Science elective 5000-level or above1
Any elective 5000-level or above 23
Total Course Units10
1

Alternative graduate level math courses may be considered at the discretion of the Graduate Group Chair.

2

Students may take up to one course in the Wharton School.  Non-technical classes will be allowed at the discretion of the Graduate Chair. With permission, students may take up to 2 CU's of Independent Study (5990) or 2 CU's of Master's Thesis (9990), with a CBE faculty member, which are counted as electives.

GPA Requirement

A grade average of at least B must be kept to remain in good standing. Students with an undergraduate degree in a field other than chemical engineering receiving a grade of C or below in any required graduate course will be asked to withdraw. It should be emphasized that merely passing all graduate courses does not obligate the University to grant a degree. Successful candidates for the MSE degree must be recommended as such by the Graduate Group Committee.

Focus areas include:

  • Biotechnology and Pharma
  • Catalysis, Energy, and Environment
  • Computational Science and Simulation
  • Process Control and Design
  • Soft Matter

See Graduate Group Chair or Graduate Coordinator for suggested lists of elective courses in different focus areas.

Sample Plan of Study, no thesis 1

Plan of Study Grid
First Year
FallCourse Units
CBE 6180 Advanced Molecular Thermodynamics 1
CBE 6400 Transport Processes I 1
ENM 5100 Foundations of Engineering Mathematics - I 1
 Course Units3.00
Spring
CBE 6210 Advanced Chemical Kinetics and Reactor Design 1
2 CU's of Engineering Electives 2
 Course Units3.00
Second Year
Fall
3 CU's of Electives 3
 Course Units3.00
Spring
1 CU Elective 1
 Course Units1.00
 Total Course Units10.00

Sample Plan of Study, with thesis 1

Plan of Study Grid
First Year
FallCourse Units
CBE 6180 Advanced Molecular Thermodynamics 1
CBE 6400 Transport Processes I 1
ENM 5100 Foundations of Engineering Mathematics - I 1
 Course Units3.00
Spring
CBE 6210 Advanced Chemical Kinetics and Reactor Design 1
2 CU's of Engineering Electives 2
 Course Units3.00
Second Year
Fall
2 CU's of Electives 2
CBE 9990 Master's Thesis 1
 Course Units3.00
Spring
CBE 9990 Master's Thesis 1
 Course Units1.00
 Total Course Units10.00
1

Program Duration: MSE students must register for at least three course units per semester to maintain full-time status.  This is especially important for international students to maintain their visa status. Full-time master’s students can complete their degrees in one to two years.  In order to complete the degree in one year, it is necessary to take four course units in both the fall and spring semesters, with two course units during the summer session.