Akshay S. Nair
Akshay S. Nair is a Bachelor of Technology graduate (2025) in Engineering Physics from National Institute of Technology (NIT) Calicut, Kerala, India. He completed his higher secondary education at Mambaram Higher Secondary School, Kannur, Kerala, where he secured 5th rank in the school with an outstanding score of 99.91% in the Bioscience stream in 2020.
Akshay’s research interests are centered around photonics-based metamaterials, particularly their applications in optical sensing and communication systems. His academic coursework, which includes atomic physics, experimental methods of physics, modern optics, condensed matter physics, metamaterials, and laser physics, has provided him with a strong foundation in physics and valuable insights into the practical applications of photonics.
He has undertaken significant research projects during his academic journey, including:
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"Chiral Metamaterial for Sensing Dielectric Objects Based on Cross-polarization Conversion Ratio at Microwave Frequencies"
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"Exploration of Non-Moire Metasurface Tiles for Robust Polarization Functionalities"
In 2024, Akshay completed a 6-week summer research internship at the Indian Institute of Technology (IIT) Ropar. During this internship, he worked on "Dielectric Loaded Surface Plasmon Polariton Waveguides (DLSPPW)," utilizing COMSOL Multiphysics to simulate outcomes based on the research paper "Theoretical Analysis of Dielectric-Loaded Surface Plasmon-Polariton Waveguides." This experience enhanced his computational modeling skills and deepened his understanding of plasmonic phenomena.
Akshay has also contributed to academic research through publications. He co-authored a paper titled "Chiral Metamaterial for Sensing Dielectric Objects Based on Cross-polarization Conversion Ratio at Microwave Frequencies," presented at the 2024 Photonics & Electromagnetics Research Symposium (PIERS) in Chengdu, China.
With a strong academic background and hands-on research experience, Akshay is passionate about advancing the field of photonics and metamaterials through experimental research. He aims to leverage his expertise to address challenges in optical sensing and communication technologies while exploring innovative applications of applied physics.