Tijana Rajh

Tijana Rajh serves as a Professor and Director at Arizona State University's School of Molecular Sciences. Her email address is Tijana.Rajh@asu.edu, and she is based on the Tempe campus. Her extensive research portfolio spans multiple disciplines within nanotechnology, materials science, and chemistry.

Dr. Rajh earned her Ph.D. from the University of Belgrade in Serbia, establishing the foundation for her distinguished career in nanoscience. Her educational background has positioned her as a leading researcher in the field of semiconductor nanomaterials.

Dr. Rajh's research focuses on the synthesis and study of colloidal semiconductor nanocrystals and their integration into hierarchical assemblies. She conducted pioneering research on quantum dots, which has grown into a significant scientific field. Her work spans electron transfer reactions, photoelectrochemistry of colloidal semiconductors, solar energy conversion into chemical fuels, and surface modification of nanocrystalline TiO2 nanoparticles. She developed methods for seamless electronic integration of chelating ligands with colloidal semiconductors, creating hybrid properties between nanoparticles and organic molecules. Her current work focuses on developing self-adapting nanostructures for energy transduction, conversion, and storage, as well as hybrid systems for sensing biomolecules including quantum qubits.

Analysis of Dr. Rajh's recent publications reveals a strong focus on advanced nanomaterials with applications spanning energy conversion, quantum technologies, and environmental sensing. Her work demonstrates a consistent trajectory from fundamental nanomaterial synthesis to increasingly complex applications in energy and quantum information systems. The publications show particular emphasis on 2D materials, semiconductor nanocrystals, and biohybrid systems, reflecting her evolution from foundational nanoscience research to cutting-edge applications.

Dr. Rajh actively mentors students through various research courses including BCH 392, BCH 492, BCH 493, CHM 392, CHM 492, and CHM 493 across multiple semesters from 2022 through 2025. She supervises graduate research through courses such as CHM 592, CHM 599, CHM 792, CHM 799, BCH 592, BCH 599, BCH 792, and BCH 799, indicating her significant role in training the next generation of scientists in molecular sciences and chemistry.

Her laboratory work appears to focus on the synthesis and characterization of advanced nanomaterials, with particular emphasis on semiconductor nanoparticles, quantum dots, and hybrid nano-bio systems. The research involves sophisticated techniques including magnetic resonance, electron microscopy, and various spectroscopic methods to investigate spin effects and electron transfer processes in hybrid structures.