Inspired by nature
Biomimicry offers a unique advantage in scientific innovations by allowing researchers to draw inspiration from nature’s time-tested solutions, leading to efficient and sustainable designs. By mimicking biological systems, scientists can develop technologies that are highly adaptable, resilient, and optimized for performance in diverse environments. Additionally, biomimicry promotes eco-friendly approaches, often resulting in innovations that minimize waste and energy consumption, aligning with the growing demand for sustainable practices in various industries. We use a biomimetic approach to develop new materials for organic synthesis in aqueous environment, synthesis of nanocatalyst and theragnostic approach to drug delivery for cancer treatment.
01
Nanoreactor development
We have designed systems as nanoreactors to replicate the efficiency and adaptability of natural systems for applications in drug delivery, sensors, and environmental remediation, offering sustainable solutions that leverage the inherent self-assembly mechanisms of nature.
02
Synthesis of nanocatalysts
The size and shape control of nanocatalysts plays a crucial role in enhancing their surface area, reactivity, and selectivity, which are essential for improving catalytic efficiency in chemical reactions. By precisely tuning these properties, nanocatalysts can be optimized for more sustainable and energy-efficient processes, reducing the need for harmful chemicals and lowering environmental impact. We have developed an environmentally friendly method for the controlled synthesis of nanoclusters from spherical Pt clusters (2nm) to highly active and stable single layer Au sheets (Patent).
03
Porphyrins and heme groups
Our group has developed a process based on Machine Learning for the prediction, optimization and characterization of the Porphyrin-Oxygen binding for the design of stimuli responsive porphyrin centers targeting cancer cells. The porphyrin compounds absorbs light and generate reactive oxygen species to selectively destroy cancer cells. This targeted approach minimizes damage to surrounding healthy tissue, offering a more precise and less invasive alternative to traditional cancer treatments.
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Targeted Drug Delivery
Our project seeks to transform cancer treatment by addressing critical challenges such as minimizing or eliminating the debilitating side effects of chemotherapy, enhancing patients' quality of life, and ensuring access to effective cancer therapies. Additionally, it aims to advance early detection methods and provide vital support to surgeons during cancer excisions, ultimately transforming the landscape of cancer care and improving outcomes for patients facing this group of diseases.
Intruments
State-of-the-art computational and experimental tools are essential for advancing nanomaterial research by enabling precise design, optimization, and characterization, driving innovation for applications in energy, medicine, and sustainability.
Collaborations
Collaborate with INSPIRE to leverage our expertise in Nanomaterials and Reactor technologies. Join us in exploring new possibilities and driving impactful solutions in the fields of Nanomaterials and Drug delivery.
Education
Our educational programs offer valuable opportunities for undergraduate and graduate students to engage in hands-on research projects and contribute to groundbreaking discoveries. Join us in shaping the future of Nanomaterial science and its applications.
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We have graduate positions available - contact us.