Beginning with students admitted in the fall of 2026, all students pursuing on-ground master's degree programs must complete a university-level experiential learning requirement. This requirement may be fulfilled through the curriculum, co-op, or other work- or industry-integrated learning experiences.
All students must complete the following core requirements unless otherwise indicated. Courses cannot double count in two different categories.
General Core Requirements
| Code | Title | Hours |
|---|---|---|
| A grade of C or higher is required in each course: | ||
| CHME 6310 | Python for Chemical Engineers | 2 |
| CHME 6320 | Numerical and Statistical Methods for Chemical Engineering | 4 |
| The following course must be completed twice, once in a fall term and once in a spring term, on a satisfactory basis. | ||
| CHME 6390 | Professional Development and Communication Essentials | 0 |
Concentrations
Complete one of the following concentrations:
Optional Co-op Experience
| Code | Title | Hours |
|---|---|---|
| Complete the following. Students must complete ENCP 6100 to qualify for co-op experience: | ||
| ENCP 6100 | Introduction to Cooperative Education | 1 |
| ENCP 6964 | Co-op Work Experience | 0 |
| or ENCP 6954 | Co-op Work Experience - Half-Time | |
| or ENCP 6955 | Co-op Work Experience Abroad - Half-Time | |
| or ENCP 6965 | Co-op Work Experience Abroad | |
Program Credit/GPA Requirements
32 total semester hours required (33 with optional co-op)
Minimum 3.000 GPA required
Biosystems Concentration
| Code | Title | Hours |
|---|---|---|
| Concentration Core Courses | ||
| A grade of C or higher is required in each course: | ||
| CHME 5160 | Drug Delivery: Engineering Analysis | 4 |
| or CHME 5630 | Biochemical Engineering | |
| CHME 6430 | Chemical Engineering for Biosystems and Biomaterials | 2 |
| Depth Courses | ||
| Complete 8 semester hours from the following (courses cannot count in multiple categories): | 8 | |
| Drug Delivery: Engineering Analysis | ||
| Design of Experiments and Ethical Research | ||
| Process Safety Engineering for Biotechnology and Pharmaceutical Industries | ||
| Biochemical Engineering | ||
| Biomaterials Principles and Applications | ||
| Advanced Topics in Biomaterials | ||
| Introduction to Polymer Science | ||
| Breadth Courses | ||
| Complete 12 semester hours from the following (courses cannot count in multiple categories): | 12 | |
| Molecular Bioengineering | ||
| Protein Chemistry | ||
| Chemistry and Design of Protein Pharmaceuticals | ||
| Molecular Modeling | ||
| Materials Characterization Techniques | ||
| Computational Modeling in Chemical Engineering | ||
| Drug Delivery: Engineering Analysis | ||
| Complex Fluids and Everyday Materials | ||
| Design of Experiments and Ethical Research | ||
| Fundamentals in Process Safety Engineering | ||
| Process Safety Engineering for Biotechnology and Pharmaceutical Industries | ||
| Designing for Process Safety | ||
| Electrochemical Engineering | ||
| Biochemical Engineering | ||
| Biomaterials Principles and Applications | ||
| Advanced Topics in Biomaterials | ||
| Photochemistry Fundamentals and Applications and Photochemistry Lab | ||
| Numerical Strategies and Data Analytics for Chemical Sciences | ||
| Introduction to Polymer Science | ||
| Carbon Capture, Utilization, and Storage | ||
| Special Topics in Chemical Engineering | ||
| Chemical Engineering Thermodynamics | ||
| Chemical Engineering Kinetics | ||
| Transport Phenomena | ||
| Pharmaceutical Engineering I | ||
| Pharmaceutical Engineering II | ||
| Special Topics in Chemical Engineering | ||
| Environmental Biological Processes | ||
| Engineering Project Management | ||
| Economic Decision Making | ||
| Financial Management for Engineers | ||
| Engineering Probability and Statistics | ||
| Statistical Methods in Engineering | ||
| Statistical Quality Control | ||
| Fundamentals of Advanced Materials | ||
| Foundations in Nanomedicine: Therapeutics | ||
| Nanomedicine Research Techniques | ||
| Electron Microscopy Techniques | ||
| Nano/Biomedical Commercialization: Concept to Market | ||
| Experimental Design and Biostatistics | ||
General Principles and Applications Concentration
| Code | Title | Hours |
|---|---|---|
| Concentration Core Courses | ||
| A grade of C or higher is required in each course: | ||
| CHME 6410 | Chemical Engineering Research Methods | 2 |
| CHME 7330 | Chemical Engineering Thermodynamics | 4 |
| or CHME 7350 | Transport Phenomena | |
| Depth Courses | ||
| Complete one of the following options (courses cannot count in multiple categories): | 8 | |
| Thesis Option | ||
| In addition to completing the thesis course, students must successfully complete the thesis submission process, including securing committee and Graduate School of Engineering signatures and submission of an electronic copy of their MS thesis to ProQuest: | ||
| Master's Project 1 | ||
| Thesis | ||
| Seminar | ||
| Project Option | ||
| Chemical Engineering Thermodynamics | ||
or CHME 7340 | Chemical Engineering Kinetics | |
or CHME 7350 | Transport Phenomena | |
| Master's Project | ||
| Breadth Courses | ||
| Complete 12 semester hours from the following (courses cannot count in multiple categories): | 12 | |
| Molecular Bioengineering | ||
| Protein Chemistry | ||
| Chemistry and Design of Protein Pharmaceuticals | ||
| Molecular Modeling | ||
| Electrochemistry of Renewable Energy Devices and Materials Chemistry of Renewable Energy | ||
| Materials Characterization Techniques | ||
| Computational Modeling in Chemical Engineering | ||
| Drug Delivery: Engineering Analysis | ||
| Complex Fluids and Everyday Materials | ||
| Design of Experiments and Ethical Research | ||
| Fundamentals in Process Safety Engineering | ||
| Process Safety Engineering for Biotechnology and Pharmaceutical Industries | ||
| Designing for Process Safety | ||
| Electrochemical Engineering | ||
| Biochemical Engineering | ||
| Biomaterials Principles and Applications | ||
| Advanced Topics in Biomaterials | ||
| Photochemistry Fundamentals and Applications and Photochemistry Lab | ||
| Numerical Strategies and Data Analytics for Chemical Sciences | ||
| Introduction to Polymer Science | ||
| Carbon Capture, Utilization, and Storage | ||
| Special Topics in Chemical Engineering | ||
| Chemical Engineering Thermodynamics | ||
| Chemical Engineering Kinetics | ||
| Transport Phenomena | ||
| Pharmaceutical Engineering I | ||
| Pharmaceutical Engineering II | ||
| Special Topics in Chemical Engineering | ||
| Engineering Project Management | ||
| Economic Decision Making | ||
| Financial Management for Engineers | ||
| Engineering Probability and Statistics | ||
| Statistical Methods in Engineering | ||
| Statistical Quality Control | ||
| Fundamentals of Advanced Materials | ||
| Foundations in Nanomedicine: Therapeutics | ||
| Nanomedicine Research Techniques | ||
| Electron Microscopy Techniques | ||
| Nano/Biomedical Commercialization: Concept to Market | ||
| Experimental Design and Biostatistics | ||
Sustainability Concentration
| Code | Title | Hours |
|---|---|---|
| Concentration Core Courses | ||
| A grade of C or higher is required in each course: | ||
| CHME 5621 | Electrochemical Engineering | 4 |
| or CHME 5683 | Introduction to Polymer Science | |
| CHME 6420 | Engineering for Chemical Sustainability | 2 |
| Depth Courses | ||
| Complete two of the following (courses cannot count in multiple categories): | 8 | |
| Materials Characterization Techniques | ||
| Computational Modeling in Chemical Engineering | ||
| Complex Fluids and Everyday Materials | ||
| Electrochemical Engineering | ||
| Introduction to Polymer Science | ||
| Carbon Capture, Utilization, and Storage | ||
| Breadth Courses | ||
| Complete 12 semester hours from the following (courses cannot count in multiple categories): | 12 | |
| Molecular Bioengineering | ||
| Molecular Modeling | ||
| Electrochemistry of Renewable Energy Devices and Materials Chemistry of Renewable Energy | ||
| Materials Characterization Techniques | ||
| Computational Modeling in Chemical Engineering | ||
| Drug Delivery: Engineering Analysis | ||
| Complex Fluids and Everyday Materials | ||
| Design of Experiments and Ethical Research | ||
| Fundamentals in Process Safety Engineering | ||
| Process Safety Engineering for Biotechnology and Pharmaceutical Industries | ||
| Designing for Process Safety | ||
| Electrochemical Engineering | ||
| Biochemical Engineering | ||
| Biomaterials Principles and Applications | ||
| Advanced Topics in Biomaterials | ||
| Photochemistry Fundamentals and Applications and Photochemistry Lab | ||
| Numerical Strategies and Data Analytics for Chemical Sciences | ||
| Introduction to Polymer Science | ||
| Carbon Capture, Utilization, and Storage | ||
| Special Topics in Chemical Engineering | ||
| Chemical Engineering Thermodynamics | ||
| Chemical Engineering Kinetics | ||
| Transport Phenomena | ||
| Pharmaceutical Engineering I | ||
| Pharmaceutical Engineering II | ||
| Special Topics in Chemical Engineering | ||
| Organic Pollutants in the Environment | ||
| Environmental Fluid Mechanics | ||
| Climate Technologies for Decarbonization, Mitigation, and Adaptation | ||
| Environmental Biological Processes | ||
| Engineering Project Management | ||
| Economic Decision Making | ||
| Financial Management for Engineers | ||
| Engineering Probability and Statistics | ||
| Statistical Methods in Engineering | ||
| Statistical Quality Control | ||
| Fundamentals of Advanced Materials | ||
| Electron Microscopy Techniques | ||
- 1
To be completed prior to Thesis (CHME 7990).