Applied Physics MS Program

Program Mission: 
The mission of the Master’s Program in Applied Physics is to prepare graduates to become highly skilled researchers, innovators, and problem-solvers capable of applying fundamental and applied physics principles at the micro- and nanoscale. The program provides a solid foundation in theory, computation, and experimentation that enable students to tackle complex challenges in areas such as quantum technology, photonics, optoelectronics nanoelectronics, applied solid-state physics, and renewable energy. Graduates of the program become  well prepared for research careers in academia, industry as well as advanced doctoral studies.
 
Program Goals: 
• Education: Provide a rigorous and comprehensive graduate education that empowers students with advanced theoretical insights, computational skills, and experimental expertise required to implement applied physics concepts at the micro- and nanoscale.
• Research: Equip students with the skills to act as effective researchers, innovators, and problem-solvers, capable of addressing complex challenges in quantum technology, photonics, optoelectronics and renewable energy.
• Community & Impact: Produce skilled graduates who are prepared for high-impact research careers in academia, industry, and for entry into top-tier doctoral programs.

Program Learning Outcomes (PLOs):  

Knowledge and Understanding: 
• K1: Evaluate the fundamental and advanced theoretical principles of quantum mechanics, electromagnetism, and statistical mechanics that govern applied physics. 
• K2: Analyze the physics of micro- and nanoscale systems by applying principles of solid-state physics and light-matter interactions. 
• K3: Assess the potential applications, technological limitations, and societal impact of emerging physical concepts and materials in photonics, optoelectronics nanoelectronics, and quantum technology.

Skills:  
• S1: Apply fundamental and advanced theoretical models and computational tools to analyze and solve complex physics-based problems in quantum, photonic, or nanoelectronics systems. 
• S2: Design, execute and analyze experimental research to critically examine physical phenomena at the micro- and nanoscale. 
• S3: Communicate complex research findings, physical concepts, and technical arguments though effective written and oral communications.   

Values, Autonomy, and Responsibility:  
• V1: Demonstrate professional integrity and independent judgment by justifying the selection, application, and limitations of advanced physical models, computational methods, and experimental designs within a research project. 
• V2: Demonstrate accountability for professional practice by evaluating the broader societal, economic, and ethical implications of new technologies derived from applied physics. 
• V3: Demonstrate professional responsibility by engaging effectively in interdisciplinary teams and adhering to ethical standards in scientific research, data integrity, and collaboration.