IIT Jodhpur researchers develop sensor to track disease spread

Indian Institute of Technology Jodhpur researchers have developed a nanosensor that helps in the quick detection of Cytokines, a group of proteins that regulate various cells. This development aims to reduce the mortality rate occurring due to delayed diagnosis and a lack of early warnings. Moreover, the technology has immense potential to be used as a rapid and point-of-care technique for health monitoring, disease diagnosis, prognosis, and immune response tracking.

Cytokines are one of the many biomarkers of inflammation that are used for diagnosing diseases and tracking their progression. They play an important role in tissue damage repair, cancer development and progression, and modulating immune reactions. This is why they are important for developing precision medicine and targeted therapeutics for various conditions like oncology, infectiology and in rheumatological diseases, among others.

The work was published by Akilandeshwari B, Department of Bioscience and Bioengineering, Sarvar Singh, Department of Electrical Engineering, Prof Ajay Agarwal, Head, Department of Electrical Engineering, and Prof Sushmita Jha, Department of Bioscience and Bioengineering at IIT Jodhpur. Talking about the developed technique and its future scope, Prof Agarwal, said, “This technique which is currently in its development stage has provided exciting and encouraging results for three biomarkers i.e. interleukin-6 (IL-6), interleukin-β (IL-β), and TNF-α which are key pro-inflammatory cytokines, released by inflammatory cells. As of now, the testing is done for controlled samples, but the team aims to take the technology to clinical trials soon. The group is also using this technique, to develop detection protocols for the early-stage and quick diagnosis of Sepsis and Fungal infections.”

This novel sensor developed at IIT Jodhpur uses Surface Enhanced Raman Spectroscopy to detect analytes even at low concentrations, is based on semiconductor process technology and works on the principle of Surface Enhanced Raman Scattering (SERS). Hence, it makes this technique powerful and capable of detecting trace-level molecules with high precision and selectivity.