Chemical and Biomolecular Engineering, PhD

The Ph.D. in Chemical and Biomolecular Engineering is primarily a research-oriented degree for students showing exceptional promise for original contributions to the theory and practice of chemical and biomolecular engineering.  The degree is a virtual requirement for those planning to teach chemical and biomolecular engineering, as well as for those planning on a research career. Doctoral candidates are expected to show superior capability for independent work and study.


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.


Required Courses

Core Courses
ENM 5100Foundations of Engineering Mathematics - I1
or ENM 5020 Numerical Methods and Modeling
CBE 6180Advanced Molecular Thermodynamics1
CBE 6210Advanced Chemical Kinetics and Reactor Design1
CBE 6400Transport Processes I1
Electives
Select four course units 14
Teaching Requirement
CBE 8950Teaching Practicum0
Seminar
CBE 6990Chemical and Biomolecular Engineering Seminar (minimum 4 semesters)0
CBE 9000Chemical and Biomolecular Fourth Year Seminar0
Responsible Conduct of Research Requirement
EAS 9000Responsible Conduct for Research (RCR), Engineering0
Dissertation/Research 211
Independent Study Research
Dissertation
Total Course Units19

University PhD Benchmarks

In addition to Program requirements, the following milestones must be completed:

Qualifying Evaluation
Candidacy Examination
Dissertation Defense/Oral Exam
Dissertation Deposit


For more information view the University’s Academic Rules for PhD Programs.

1

4 CU's of electives are required to complete the doctoral program. PhD students in CBE select their electives with their Faculty Advisor. Electives may be chosen from any courses at a level of 5000 or above. Students may take up to 1 course in the Wharton School. Non-technical classes will be allowed at the discretion of the Graduate Chair.

2

Doctoral students are expected to maintain full-time status and to enroll in CBE 9999 Independent Study Research while conducting research, in consultation with their advisor. A student should enroll in CBE 9950 in year three and beyond once they advance to candidacy. A student must be enrolled in CBE 9950 in their final semester.

Sample Plan of Study

First Year
Fall
CBE 6180Advanced Molecular Thermodynamics1
CBE 6400Transport Processes I1
CBE 6990Chemical and Biomolecular Engineering Seminar0
EAS 9000Responsible Conduct for Research (RCR), Engineering0
1 CU's of Electives 11
Spring
ENM 5100Foundations of Engineering Mathematics - I1
or ENM 5020 Numerical Methods and Modeling
CBE 6210Advanced Chemical Kinetics and Reactor Design1
CBE 6990Chemical and Biomolecular Engineering Seminar0
CBE 9999Independent Study Research1
1 CU's of Electives 11
Qualifiier Exam
Second Year
Fall
CBE 8950Teaching Practicum0
CBE 6990Chemical and Biomolecular Engineering Seminar0
CBE 9999Independent Study Research1
2 CU's of Electives 12
Spring
CBE 8950Teaching Practicum0
CBE 9999Independent Study Research3
CBE 6990Chemical and Biomolecular Engineering Seminar0
Third Year and beyond
Fall
CBE 9999Independent Study Research3
CBE 9000Chemical and Biomolecular Fourth Year Seminar 20
Spring
CBE 9950Dissertation3
Total Course Units19
1

Electives can be chosen from most 5000+ level courses in engineering or the sciences and should be chosen with advisor input. Courses outside of engineering MUST have advisor approval prior to registration.

2

Will be taken in Fall of the student's fourth year.