top of page

By:

Suhas B Naik-Satam

25 November 2025 at 2:24:38 pm

The Institution That Shaped Modern Indian Science

A journey from Mahendra Lal Sircar's vision to global scientific excellence. The year 2026 marks the sesquicentennial of the Indian Association for the Cultivation of Science (IACS), Kolkata, the oldest institution in India devoted exclusively to fundamental scientific research. Founded on 29 July 1876 by the visionary physician and educationist Dr Mahendra Lal Sircar, IACS emerged when India lacked institutions dedicated to experimental science. Convinced that scientific inquiry was...

The Institution That Shaped Modern Indian Science

A journey from Mahendra Lal Sircar's vision to global scientific excellence. The year 2026 marks the sesquicentennial of the Indian Association for the Cultivation of Science (IACS), Kolkata, the oldest institution in India devoted exclusively to fundamental scientific research. Founded on 29 July 1876 by the visionary physician and educationist Dr Mahendra Lal Sircar, IACS emerged when India lacked institutions dedicated to experimental science. Convinced that scientific inquiry was indispensable for national progress, Sircar established an institution to nurture original research by Indians while promoting scientific knowledge among the public. One hundred and fifty years later, IACS remains one of India's foremost research institutions, its history closely intertwined with the evolution of modern science in the country. The genesis of IACS reflected the intellectual ferment of the Bengal Renaissance. Trained in Western medicine yet deeply committed to India's intellectual emancipation, Sircar argued that science should be cultivated through experimentation and discovery rather than merely imported through textbooks. Inspired by institutions such as the Royal Institution of Great Britain, he envisioned a publicly supported national laboratory where Indians could pursue independent scientific research. At a time when such opportunities were scarce under colonial rule, IACS became the country's first permanent home for fundamental scientific investigation. During its early decades, the Association combined public lectures and scientific demonstrations with laboratory research, fostering an interdisciplinary culture spanning physics, chemistry and the natural sciences. Though modest in resources, it established an enduring tradition of curiosity-driven research. The defining chapter in IACS history began with the arrival of Chandrasekhara Venkata Raman in 1907. While serving in the Indian Finance Department, Raman spent his evenings and holidays conducting experiments at IACS on acoustics, optics and the scattering of light. On 28 February 1928, he and his collaborators announced the discovery of the inelastic scattering of light by molecules—the Raman Effect—creating a powerful spectroscopic technique that transformed the study of molecular structure. Today, Raman spectroscopy is indispensable across chemistry, materials science, biology, medicine, pharmaceuticals, environmental monitoring and planetary exploration. For this achievement, Raman received the 1930 Nobel Prize in Physics, becoming the first Asian to win a Nobel Prize in the sciences for work conducted entirely in India. His success demonstrated that world-class scientific research could emerge from Indian laboratories. Yet IACS's scientific legacy extends far beyond Raman. Kedareswar Banerjee advanced crystallographic research through pioneering X-ray crystallography, while Satyendra Nath Bose's association with IACS enriched the intellectual environment that fostered advances in quantum physics. Meghnad Saha's theory of thermal ionisation transformed astrophysics, and together Raman, Bose and Saha established Kolkata as one of Asia's leading scientific centres. The institution also made major contributions to chemistry through Jnan Chandra Ghosh, whose work in physical chemistry laid foundations for modern chemical research in India. Following Independence, IACS expanded into chemical sciences, materials science, biological sciences and theoretical physics, reflecting the increasingly interdisciplinary nature of scientific inquiry. Among its distinguished scientists was Asima Chatterjee, whose pioneering research on natural products chemistry and medicinal plant alkaloids transformed phytochemistry and contributed significantly to pharmaceutical science. Ajoy Ghatak further strengthened IACS's reputation through his work in fibre optics, waveguides and laser physics, while his textbooks educated generations of physicists and engineers. More recently, IACS researchers have advanced ultrafast spectroscopy, nanomaterials, renewable energy, molecular electronics, quantum materials and computational biology. Today, IACS functions as a deemed-to-be university under the Department of Science and Technology, Government of India. Its interdisciplinary research spans the chemical, physical and biological sciences, supported by advanced facilities in spectroscopy, microscopy, X-ray diffraction, electron microscopy, computational modelling and materials characterisation. Its doctoral and postdoctoral programmes continue to produce scientists who contribute to universities, research laboratories and industry worldwide. The institution's enduring strength lies in its commitment to curiosity-driven research. Unlike organisations established primarily for technological development or industrial applications, IACS has consistently recognised that transformative innovation begins with fundamental scientific understanding. This philosophy, articulated by Mahendra Lal Sircar nearly 150 years ago, remains especially relevant in an era defined by quantum technologies, artificial intelligence, sustainable energy and molecular medicine. The sesquicentennial of IACS celebrates not only a remarkable institution but also the evolution of Indian science. From its modest beginnings in colonial Calcutta to its emergence as an internationally respected research institution, IACS has nurtured Nobel laureates, pioneering physicists, eminent chemists and generations of young researchers who continue to expand the frontiers of knowledge. As IACS enters its second century and a half, it carries forward Mahendra Lal Sircar's vision that science should be pursued with intellectual freedom, experimental rigour and an unwavering commitment to the advancement of humanity. Its 150-year legacy remains a powerful reminder that the greatest scientific discoveries begin with curiosity and flourish in institutions dedicated to excellence. (The writer is the Chief Executive for National Centre for Science Communicators, Mumbai. Views personal.)

How Digital Forensics Helps Track Online Scammers

Digital fraud leaves behind clues, but protecting your banking details is the first line of defence.

Today, sending money is as easy as tapping a few buttons on your phone. Online banking and UPI (Unified Payments Interface) have made life convenient, but they have also opened the door to new types of fraud. Many people lose money through fake calls, phishing links, and scam messages. This is where forensic investigation comes in—it helps track down criminals and understand how the fraud happened.


When someone becomes a victim of UPI or online banking fraud, the first step is to report it immediately. Investigators then collect details such as transaction IDs, phone numbers, screenshots, and bank account information. These details are important because they help create a starting point for the investigation.


Every online transaction leaves behind a digital trail. This means there is always some record of what happened, even if the fraudster tries to hide. Investigators check bank records and UPI logs to see where the money was sent. They also look at technical details like IP addresses and device information to find out from where and how the transaction was made.


Mobile phones play a big role in such frauds, so mobile forensics is another important step. Experts examine the victim’s phone to check if any suspicious apps were installed or harmful links were opened. In many cases, fraudsters trick people into downloading apps that allow them to control the phone remotely. Once they gain access, they can read OTPs (One-Time Passwords) and complete transactions without the victim realising it.


Another important part of the investigation is tracking the money. Fraudsters usually do not keep the stolen money in one place. They quickly transfer it from one account to another to avoid being caught. These accounts are often opened using fake identities and are called “mule accounts". Investigators follow the path of money step by step to find where it finally ends up. If they act quickly, banks can freeze these accounts and sometimes recover the money.


Fraudsters often contact victims through phone calls or messages, so telecom analysis is also used. Investigators trace the phone numbers used in the scam and study call records. Even if fake SIM cards are used, patterns can still be found. For example, the same number might be used to scam multiple people, helping identify fraud networks.


Many scams begin with fake messages or emails that look real. These may appear to be from a bank or a payment app. Forensic experts examine these messages carefully by checking links, website names, and email details to find out if they are genuine or fake. Often, they can trace where these fake websites were created.


Today, advanced tools like data analysis and artificial intelligence are also used. These tools can detect unusual activities, such as sudden large transfers or repeated payments to suspicious accounts. This helps in stopping fraud early and protecting more people.


However, forensic investigation is not always easy. Fraudsters keep changing their methods and often work from different locations. Sometimes, victims report the fraud too late, making it harder to recover the money.


Ultimately, forensic investigation of online banking and UPI frauds involves tracking digital records, analysing devices, and following the money trail. Even though criminals try to hide, they often leave behind clues. With the right techniques and quick action, investigators can catch them and reduce further losses. At the same time, people must stay alert and avoid sharing personal or banking details to stay safe.


(Keshav Kumar is a retired IPS and forensic consultant to Assam Government.)

Comments


bottom of page