Research Directions for Nanofabrication
Multiscale System Design for Nano-Enabled Architectures
Our research mandate is the conceptualization and realization of a novel class of nanostructures and functionalized nanomaterials. We aim to engineer systems that exhibit exceptional electrical, optical, and sensing modalities, underpinned by a rigorously efficient and scalable fabrication framework.
Strategic Methodology
The Hybrid Fabrication Approach: To transcend the limitations of conventional manufacturing, we employ a synergistic strategy that integrates 'top-down' lithographic precision with 'bottom-up' molecular self-assembly. This hybrid methodology allows for the meticulous control of spatial arrangements within organic-inorganic hybridized components. By harmonizing standard photolithography with the spontaneous organization of materials—ranging from small molecules and polymers to carbon nanomaterials and single-crystal inorganics—we successfully construct complex, hierarchical nanostructures.
System Optimization & Variables: As illustrated in our Multiscale System Design framework, we rigorously orchestrate three critical dimensions; Material Systems, Design Parameters, and Process Variables. Furthermore, we implement unconventional lithographic protocols as a sequential directive for diverse nanomaterials generated via chemical synthesis or reaction-diffusion processes. This holistic approach ensures that the resulting nano-enabled products achieve a critical equilibrium between superior Functionality and Manufacturability.
Future Applications: Ultimately, this multidimensional design philosophy converges to produce next-generation applications across Electronics, Optics, High-Sensitivity Sensors, and BioDevices, effectively bridging the gap between fundamental nanoscience and practical, high-performance engineering.