

Anubhab
Acharya, Ph.D.

Postdoctoral Researcher at UCLA | Plasmonic nanomaterials & catalysis
About
Welcome! I’m Anubhab Acharya, a postdoctoral scholar at the University of California, Los Angeles (UCLA), passionate about designing advanced catalysts that harness light energy to drive sustainable chemical transformations. With a background in Chemistry and Nanotechnology, my research explores how we can engineer materials at the atomic and molecular level to guide chemical reactions with precision. I focus on creating smart, light-responsive nanostructures that enable more efficient conversion of light energy into valuable fuels and chemicals. By integrating principles from Chemistry, Materials science, Nanophotonics, and Surface science, I design hybrid interfaces such as plasmonic-catalytic systems and metal-organic architectures that enable targeted activation of chemical bonds and facilitate non-thermal reaction mechanisms beyond conventional catalytic limits. My ultimate research goal is to bridge fundamental and applied science by developing alternative materials and methods that advance catalysis, driving the transition toward solar-driven chemical processes for sustainable and carbon-neutral energy solutions.
Publications
My research has been published in leading journals including Nature Commun., JACS, ACS Nano, Adv. Funct. Mater., and Small, highlighting my focus on materials design for energy-related applications. The key aspect of my work involves engineering of hybrid interfaces to precisely direct energy flow, modulate the local chemical environment, and control light–matter interactions at the nanoscale. These efforts aim to contribute to sustainable chemical transformations by connecting fundamental insights with materials development.
Prospective research

The big picture

Control over the nanostructural features, molecular interactions at nanoscale, and energy localization
Interplay between structure, reactivity and selectivity

Motivation
Design
Target
Understand
Application
Plasmonic catalysis for solar-driven energy conversion and chemical transformations
Tunable catalytic interfaces in nanohybrids to harness interfacial interactions for driving reactions
Materials employ light to power reactions and control chemical selectivity for sustainable catalysis