Single Molecular Magnets (SMMs):The energy needs of the digital economy are growing exponentially and account for more than 10% of global electricity usage. QMs such as single-molecule magnets (SMMs) provide a promising approach to meeting these needs by storing and processing data at the quantum molecular level, resulting in ultra-energy-efficient electronics with the improved performance needed for critical areas such as quantum computation and super high-density data storage media. SMMs will change quantum computing and molecular electronics. The major problem is that SMMs can only be employed in subzero circumstances. To be useful, they must work at ambient temperature while preserving their magnetic memory without costly coolants. Magneto-optical QMs (MOQMs): Their peculiar electrical structure gives them unique optical properties, making them excellent for quantum luminous materials. Phosphors and luminous probes are used for anti-counterfeiting, illumination, and ion, biomolecule, and temperature sensing. In both themes, the trainee will use quantum computational tools, enhanced characterization, machine learning approaches to guide synthesis and maximize the QMs properties, and unique low-carbon foot print device making capabilities based on reactive printing.
