The pursuit of advanced research in pure and applied physics is a cornerstone of scientific exploration. It serves as a guiding light, leading researchers to the forefront of knowledge in the fundamental laws that govern our universe. This commitment to advancing our understanding of the physical world is not limited to a single discipline; it extends into the interdisciplinary aspects of research. By fostering collaborations across various scientific domains, we create a synergy that propels innovation and unveils new dimensions of knowledge. Simultaneously, establishing a robust platform and infrastructure is vital to facilitate transformative research in materials and device physics. This infrastructure serves as the fertile ground on which research ideas germinate and flourish. It provides the necessary tools, resources, and laboratories for scientists to conduct experiments, analyze data, and develop innovative technologies. These cutting-edge technologies have the potential to transform theoretical knowledge into practical applications, addressing real-world challenges and enhancing our quality of life. The integration of these two aspects—advanced research in pure and applied physics and a well-equipped platform for materials and device physics research—generates a dynamic synergy. This synergy accelerates scientific progress and technological advancement, leading to a brighter and more innovative future for science and society. As researchers delve deeper into the mysteries of the universe through physics, they discover new materials, devices, and technologies that have the power to reshape our world. These breakthroughs have the potential to provide solutions to critical global issues, such as renewable energy sources, efficient transportation, and healthcare advancements. In essence, the pursuit of knowledge in physics and the practical application of this knowledge are two sides of the same coin. The synergy between these aspects fuels progress and ensures that scientific discoveries are not confined to academic discussions but are translated into solutions that benefit humanity. It is through this dynamic interplay between research and infrastructure that we continue to push the boundaries of human understanding and pave the way for a more innovative and prosperous future.

Vision

• To enable advanced levels of research in pure and applied physics and interdisciplinary aspect of research.

Mission

• To provide the platform and infrastructure for impactful and cutting-edge research in materials and device physics that transform research ideas into socially relevant real-life technologies

Proposed initiative

• Develop a novel light-manipulating optical system for enabling direction independent performance of micro-concentrating solar cells eliminating the need for tracking and module movement.
• Intend to develop low-loss IR plasmonics using low-cost conducting metal oxides
• we are developing comprehensive theoretical models of metal oxide solar cell
• Fabrication of transparent conducting layers of n-type, p-type of Zinc oxide and Tin oxide thin films using SILAR and spray pyrolysis method.
• Multiferroic Materials- synthesis and characterization