Nanomaterials + Nanofabrication
Nanomaterials and nanofabrication apply materials science at the nanoscale to create structures with unique physical, chemical and biological properties. Our research supports innovations in semiconductor devices, biomedicine, and molecular self-assembly, enabling breakthroughs in electronics, diagnostics, drug delivery, and next-generation materials for technological and healthcare applications.
Nanomaterials and nanofabrication involve designing and manipulating materials at the nanometer scale, where matter behaves differently than at larger dimensions. This field enables the creation of highly tailored materials and devices with enhanced or entirely new properties. Researchers apply nanofabrication techniques to advance semiconductor device development, helping to produce faster, smaller and more energy-efficient electronics.
In biomedicine, nanomaterials are engineered for targeted drug delivery, imaging, and diagnostics, allowing for more precise and less invasive treatments. Another area of focus is molecular self-assembly, where molecules spontaneously organize into functional structures, opening up possibilities for smart materials and nanoscale sensors. These nanoscale innovations have transformative impacts on healthcare, computing, environmental monitoring, and energy storage, contributing to more sustainable and advanced technologies. Students working in this area gain valuable skills in materials synthesis, cleanroom fabrication and nanoscale characterization—preparing them for careers at the forefront of science and engineering.
Possible Careers
- Nanofabrication engineer
- Semiconductor process engineer
- Biomedical device engineer (nano-enabled)
Current Research
Research in Nanomaterials and Nanofabrication bridges science and technology to create materials and devices that improve daily life. Our teams design nanoscale structures using top-down lithography and bottom-up self-assembly, enabling precise control of material properties. These advances power innovations in colorimetric, optical, and electrochemical sensors used in healthcare, environmental monitoring, and agriculture. The same principles drive the development of nanostructured actuators and soft robotic systems that mimic biological motion. Energy-related nanomaterials—such as high-surface-area electrodes and catalytic coatings—are also key focuses, supporting cleaner and more efficient energy conversion and storage. By combining creativity with cutting-edge fabrication tools, researchers transform fundamental discoveries into real-world technologies. From smart sensors that detect subtle chemical changes to flexible robots that move with life-like precision, our work reimagines how nanomaterials can power a more responsive and sustainable future.