Environmental pollution from antibiotics in water and toxic gases like ammonia (NH₃) threatens public health and ecosystems in Bangladesh. Traditional detection methods are expensive and impractical for widespread use. We introduce a low-cost, DIY fabrication of laser-induced graphene (LIG) electrodes
The increasing accumulation of Microplastics in the environment has created an urgent need for efficient and scalable removal technologies. While conventional methods such as Density Separation and Oil-based Extraction are effective for small-scale applications, they face limitations in terms of
Our project focuses on microplastic detection and degradation, addressing a critical environmental challenge. We’re committed to developing advanced methods for detecting and breaking down these harmful particles. Together, we’re working towards a cleaner and healthier planet. Collaborator: Dr. Mainul HossainAssistant
Our project explores the exciting world of nano-enabled agriculture. In Bangladesh, we’re studying how nano-priming can enhance soil health, plant growth, and crop yield. Our research goes beyond short-term effects, focusing on long-term sustainability. Plus, we’re fine-tuning nanoparticle sizes for
Discover the future of monitoring with bioinspired smart nanoparticles. These colorimetric sensors discreetly track key agricultural and environmental parameters. From soil health to air quality, they provide real-time data and alerts, revolutionizing decision-making. Embrace innovation for a sustainable world. Collaborator:
The properties of core-shell plasmonic nanoparticles, including scattering, extinction, absorption, and thickness, are heavily influenced by their fabrication materials. Our work involves an AI-driven approach to streamline the selection of these nanoparticles. Using neural networks, the study aims to predict
Split-ring resonator-based sensors are well known for being sensitive to changes in the dielectric constant of their surrounding which gives rise to their potential to be used as low-cost sensors for various applications. In our work, we plan to test
This project focuses on the development of a groundbreaking Flexible, Stretchable, and Single-molecule-sensitive SERS-active sensor. This innovative sensor utilizes gold nanoparticles on a polydimethylsiloxane (PDMS) substrate to achieve flexibility, stability, transparency, and biocompatibility. The sensor demonstrates an exceptional SERS Enhancement