The Master of Science in Chemistry program prepares students for diverse and rewarding careers by combining rigorous theoretical instruction with hands-on skill development. Students will gain advance knowledge in key chemistry disciplines—organic, analytical, inorganic, physical, and biochemistry with the integration of cutting-edge AI/ML techniques to analyze complex chemical data, model molecular interactions, and drive innovation in areas such as drug discovery and biomaterials science.  Graduates of the program will be well-prepared to pursue careers in diverse fields, including pharmaceuticals, biotechnology, agrichemicals, cosmetics, contract research organizations.  The curriculum places a strong emphasis on collaborative, team-based learning, encouraging students to work in diverse groups to address real-world challenges while honing their communication, leadership, and problem-solving skills. A defining feature of the program is its focus on fostering a dynamic and inclusive sense of community, where students, faculty, and researchers actively engage in mentorship, networking, and interdisciplinary collaboration. This community-centered approach cultivates an enriching environment that supports both personal and professional growth, equipping students to thrive in a future shaped by AI's transformative impact on modern chemistry, pharmaceutical sciences, and related fields. 

The program prepares students to:

• solve problems in Chemistry using computational, molecular and cellular approaches and be able to articulate these solutions to a broad audience in oral and written formats.

• perform innovative research in the field of Chemistry

• critically evaluate the scientific literature in the field of Chemistry and be able to articulate their critiques, and to explain their ideas in oral and written formats.

Program Outcomes

By the time of graduation, students will be able to:

• Employ physics, chemistry, mathematics and/or computational methods (e.g. AI/ML) appropriate for explaining and/or predicting chemical phenomena and concepts. (Scientific Foundations) 

• Determine and/or predict properties of molecules such as kinetic parameters, thermodynamic properties and rationalize chemical properties and their characteristics. (Technical Foundations)

• Employ experimental and/or computational methods (e.g. AI/ML) to design and synthesize organic and inorganic molecules and determine purity and structural characterization. (Experimentation)

• Identify, quantitate and/or predict chemical materials using instrumental analytical methods, such as spectroscopic (IR, UV, NMR, MS), chromatographic and established AI/ML methods. (Tools)

• Prepare to enter the workforce as a scientist or for admission to U.S. medical, dental, osteopathic medical schools and further graduate study. (Professionalism)

• Demonstrate good work ethics and a collaborative attitude in the pursuit of knowledge. (Teamwork)

• Compose reports in journal article format and communicate research findings effectively in both written and verbal format. (Communication)

• Observe and practice laboratory safety rules, procedures and protocols in an ethically safe manner. (Ethical)