Current Members

I specialize in synthesizing halide perovskites across various dimensions - from bulk single-crystal growth to thin-film deposition, while engineering strategies to enhance their environmental stability. My research combines structure-property correlations with defect physics and action spectroscopy to explain charge carrier transport and recombination mechanisms. Ultimately, this integrated approach allows me to tailor the fundamental properties of perovskite materials to drive the development of next-generation optoelectronic devices.

Perovskite LED

I am interested in studying the neural circuits in the retina and working towards a retinal prosthetic. Outside work I am interested in reading and football.

I am currently focused on understanding charge transport dynamics by analyzing time- and frequency-domain responses of perovskite materials and doped polymers, with applications across electronics, optoelectronics, and device physics. In parallel, I am addressing the pressing challenge of perovskite solar cell stability, aiming to uncover the fundamental mechanisms that govern long-term performance and degradation. Beyond research, I am passionate about connecting with people, exchanging ideas, and learning through meaningful conversations. Please feel free to reach out—I'd be delighted to connect and collaborate.

I am interested in optical spectroscopy and currently I am studying photon statistics in TADF molecules. Outside work I invest myself in writing poetry, listening to music, watching sci-fi and war movies, trekking and playing badminton.

My research focuses on the device physics and optoelectronic properties of organic semiconductor-based devices, particularly organic solar cells, and photodetectors. I investigate charge generation, transport, recombination, interfacial processes, and carrier dynamics using advanced electrical characterization and optical spectroscopy to understand and improve device performance

My research interests center on the fabrication and integration of sustainable metal-alloy electrodes for optoelectronic devices, transistors, and flexible electronics. By leveraging the surface tension and interfacial oxide behavior of liquid metals, I explore their applications as reconfigurable, mechanically compliant conductors and substrates.

With an experience in the field of bio-electronics. Working on patterning polymer based electrodes for listening to electrical music from neurons. Also have a growing curiosity about why some structures are colourful and how can they be modulated?

I am passionate about exploring the intersection of organic electronics, photodetection, and intelligent sensing. My master's research project focuses on organic polymer-based neuromorphic vision sensors. I have a keen interest in detector development, digital signal processing, instrumentation, and circuit designing. I enjoy learning new concepts and translating ideas into practical solutions. Extending to this, I am currently working on ionic systems and studying them using noise spectroscopy. Beyond research, I love staying active through volleyball, badminton, table tennis, and swimming. I also enjoy creative pursuits such as painting, pyrography, reading and crafting 3D artefacts.

My research interest is in the field of energy storage. My approach combines advanced material science with electrochemical engineering to scale towards real world application of supercapacitor.

I am currently engaged in developing an LED-based solar simulator for photovoltaic device characterization. My research focuses on optical design and simulation, and circuit designing . Beyond the lab, I enjoy reading,sketching and travelling.

I am working to make patterns of conductive polymers. I have explored various printing methods like inkjet and screen printing. At present I am going with microdroplet dispensing and contact line printing.I am heavily interested in the integration of science with engineering. I like working with robotics, 3d printing, and machine learning models as well.

My research interests lie primarily in material science, with a particular focus on perovskites and their applications in electronic devices. I am especially interested in perovskite field-effect transistors (FETs), semiconductor physics, device fabrication, and understanding the relationship between material properties, interfaces, and device performance.

Interdisciplinary researcher with a Master's degree in Chemistry and a Postgraduate Diploma in Materials Science, pursuing advanced research in biomaterials, bioelectronics, and neural tissue engineering. My research develops stretchable conductive polymer interfaces, electroactive biomaterials, and flexible neural platforms for in vitro biomedical applications. I integrate chemistry, materials science, electrochemistry, and cell biology to advance neural interfaces, regenerative medicine, and biomedical devices.