The Master of Science in Clinical and Applied Proteomics is designed for science graduates and those already working in the field of scientific research who wish to pursue or advance their career through specialized study in the exciting field of Proteomics and Mass Spectrometry. This program is a combination of innovative, didactic online study of theory, combined with two in-person hands on laboratory rotations in order to provide students with the freedom to study from anywhere while still gaining access to operational training with some of the most specialized, modern equipment available.
Curriculum
The Master of Science in Clinical and Applied Proteomics requires 30 credit hours. The time limit to complete all the work towards the degree is one year.
Course List
| Code |
Title |
Hours |
| CAMS 401 | Theory and Physics of Mass Spectrometry | 4 |
| CAMS 402 | Chemistry of Protein Separation | 4 |
| CAMS 403 | Introduction to Mass Spectrometry Instrumentation | 2 |
| CAMS 411 | Computation and Bioinformatics for Proteomics | 3 |
| CAMS 412 | Clinical Considerations and Biomarker Development | 3 |
| CAMS 413 | Advanced Mass Spectrometry Approaches | 2 |
| CAMS 491 | Mass Spectrometry Lab Rotation A | 5 |
| CAMS 492 | Mass Spectrometry Lab Rotation B | 5 |
| CAMS 493 | Capstone Design - Applications in Mass Spectrometry A | 2 |
| CAMS 494 | Capstone Design - Applications in Mass Spectrometry B | 2 |
| Total Hours | 32 |
The didactic classes will take place online. The laboratory rotation will take place in person at the Loyola University of Chicago’s Health Sciences Campus in Maywood, IL.
Graduate & Professional Standards and Regulations
Students in graduate and professional programs can find their Academic Policies in Graduate and Professional Academic Standards and Regulations under their school. Any additional University Policies supercede school policies.
Learning Outcomes
Upon completion of this program, students will be able to:
- Understand how compounds can be isolated for analysis based on their chemical properties.
- Describe the physics of each step of mass spectrometry.
- Read and interpret mass spectra.
- Identify the best mass spectrometry approach for a given situation.
- Perform all steps, from sample preparation to data analysis, of the mass spectrometry analysis workflow.
- Be able to explain the bioinformatic analysis of mass spectra and how to choose the most appropriate approach for a given situation.
- Develop a project based on a clinical or applied mass spectrometry question.
