Research Projects

Borophene, a 2D atomic sheet of boron, has been synthesized by an applicant who is currently working on large phase scale-controlled synthesis for borophene-based devices. The X3 and β12 phases of borophene have atomic sheet configurations, providing high electron density along specific directions. Spaces between the ridge lines can act as transport channels and enhance anchoring capabilities. Another borophene polymorph, the icosahedron structure, allows freestanding borophene to have extra closely packed atoms, making it an ultra-sensitive material for external stimuli and conducting tapes for space research and technology. Adhesive tapes are crucial tools in space, but they face challenges due to vacuum, extreme thermal cycling, radiation, and space charging. Conventional acrylic adhesives face issues like poor conductors and low-thermal stability, which can reduce their performance and effective lifetime in harsh environments. The proposed conducting tape promises to accomplish macroscopic shear adhesion and translate weak van der Waals interactions into high shear forces. This innovative synthetic tape can provide a dry conductive path for grounding and microelectronics in space applications. It will be resistant to degassing, damages/corrosion by high-energy particles, and atomic-oxygen. The conductive path offered by the proposed tape will improve the grounding of on-board electronics and prevent fatal damages due to internal space charging. In conclusion, the proposed synthetic tape is a breakthrough in the adhesive industry with promising applications for space technology and research.