Master's in Nanoscience - Instrumentation

UNC Greensboro’s M.S. in Nanoscience with a concentration in Instrumentation prepares graduate students to use advanced scientific tools to image, measure, analyze, and characterize materials at micro- and nanoscale dimensions. Offered through the Joint School of Nanoscience and Nanoengineering (JSNN), the 31–33 credit-hour program combines interdisciplinary nanoscience coursework with specialized training in microscopy, spectroscopy, surface analysis, materials characterization, and other advanced analytical techniques.

Students develop an understanding of both the scientific theory behind modern instrumentation and its practical application to research problems involving materials, biological systems, and nanoscale technologies. The program is designed for students with strong STEM backgrounds who want deeper preparation for research, laboratory, instrumentation, or technical careers.

Why Study Nanoscience Instrumentation at UNCG?

Advanced instrumentation is central to nanoscience research because nanoscale materials and systems often cannot be understood without specialized imaging, measurement, and characterization techniques. At JSNN, students learn within a research environment built around advanced microscopy, analytical chemistry, materials testing, and micro- and nanofabrication. The Joint School’s Institute for Research Technologies provides access to instrumentation used by academic, industry, and government researchers for imaging, chemical analysis, materials characterization, and process development. This environment allows students to connect graduate coursework with the analytical tools and research methods used in contemporary nanoscience, materials science, biotechnology, and other technology-focused fields.

The Master’s In Nanoscience Instrumentation Student Experience

Students combine foundational nanoscience study with specialized coursework in scientific instrumentation and materials characterization. Areas of study can include:

• Physical, chemical, and biological foundations of nanoscience
• Analytical, statistical, and computational approaches
• Nanoscience laboratory protocols and practices
• Spectroscopy methods
• Optical microscopy
• Particle beam and electron microscopy
• Nanoscience characterization techniques
• Molecular biology methods
• Nano-biosensors
• Scientific communication
• Research integrity and ethics

Students select multiple instrumentation-focused graduate courses while also completing broader nanoscience requirements that help them understand how analytical measurements fit into scientific research. Depending on their pathway, students complete either a capstone experience or thesis research.

Career Outcomes and Opportunities in Nanoscience

Graduates of the Nanoscience Instrumentation concentration develop technical and analytical skills relevant to organizations that use advanced scientific equipment for research, testing, product development, and materials analysis. Potential career paths include:

• Instrumentation scientist
• Materials characterization scientist
• Applications scientist
• Research scientist
• Microscopy specialist
• Spectroscopy specialist
• Laboratory scientist
• Materials analyst
• Scientific instrumentation specialist
• Research and development scientist
• Technical applications specialist

Graduates may work in academic and government laboratories as well as industries involving advanced materials, semiconductors, biotechnology, pharmaceuticals, electronics, manufacturing, scientific instrumentation, and other technology-driven fields. The concentration can also provide preparation for doctoral study or other research-intensive work involving nanoscience, materials science, chemistry, physics, or related disciplines.