Thermal fluctuations at the atomic scale can drive the biased diffusion of macromolecules on specific surfaces, offering the possibility of controlling their motion. These dynamic processes are the basis of nanomachines.

Understanding the origin of macroscopic material behavior at the atomic scale provides valuable insight for designing stronger and more resilient materials suited for various applications under extreme environmental conditions.

We study the dynamic behavior of macromolecules and their interactions with various surfaces to gain a deeper understanding of their fundamental properties and potential applications, such as in drug delivery systems and targeted therapeutics.

We model proteins at the single-molecule scale with high spatiotemporal resolution to gain insight into mechanisms in living systems.

Ice nucleation is a ubiquitous phenomenon in nature. Atomic-scale modeling of this process provides insights into the different mechanisms of ice nucleation.

Unlike traditional rigid robots, soft robots are made from materials like silicone, elastomers, and hydrogels, allowing them to interact safely with humans and navigate complex environments. Their applications range from medical devices and prosthetics to search-and-rescue missions and underwater exploration.

We design interactive STEM activities to teach school students about the importance of water and the phenomena it undergoes. These activities simultaneously introduce students to the atomic-scale science behind these processes.