Advanced Materials, Nanotechnology and Engineering

Nanoclusters are intriguing entities in the realm of nanoscience, comprising a small number of atoms or molecules, typically ranging from a few to several hundred. Their unique size imparts distinctive physical and chemical properties, differing significantly from both individual atoms and bulk materials. In nanoscience, understanding nanoclusters is pivotal as they bridge the gap between atomic and bulk behaviors, influencing fields like catalysis, optics, and electronics. These nanoscale assemblies exhibit quantum effects due to their size, leading to enhanced reactivity and novel electronic structures. Researchers harness these properties to develop advanced materials with tailored functionalities, from more efficient catalysts for clean energy applications to ultra-sensitive sensors for biomedical diagnostics. The study of nanoclusters involves sophisticated experimental techniques and computational modeling to elucidate their atomic-scale structures and dynamics. As nanoscience continues to evolve, nanoclusters promise groundbreaking advancements in technology, offering solutions to complex challenges in diverse industries, paving the way for the next generation of innovative materials and devices.