Recently, the Narcotics Control Bureau (NCB), under Operation RAGEPILL, busted an international drug trafficking syndicate involved in the smuggling of Captagon.
About Captagon
Captagon is a highly addictive synthetic stimulant drug belonging to the amphetamine family.
It originally contained fenetylline, a synthetic psychoactive substance chemically related to amphetamines.
Origin and Development
Developed in Germany during the 1960s–70s
Initially used to treat:
Attention Deficit Disorders
Narcolepsy
Hyperactivity disorders
It was legally sold in several countries before concerns about addiction and abuse led to restrictions.
Composition of Captagon
Captagon tablets generally contain:
Fenetylline
Amphetamine compounds
Caffeine
Other stimulants
How it Works
Fenetylline breaks down in the body into:
Amphetamine
Theophylline
Both substances stimulate the nervous system and increase alertness and energy.
Why was it Banned?
Highly addictive nature
Severe psychological and neurological effects
Risk of dependency and abuse
It was:
Banned in most countries in 1986
Placed under Schedule II of the UN Convention on Psychotropic Substances
Global Concern
Captagon is commonly known as the “poor man’s cocaine.”
It has become particularly popular among youth in:
Middle East
North Africa
The drug has also emerged as a major source of:
Illegal trafficking
Organized crime
Funding for armed groups and conflict networks in West Asia
Effects of Captagon
Short-Term Effects
Increased energy
Euphoria
Reduced fatigue
Hyper-alertness
Harmful Effects
Addiction
Anxiety and aggression
Hallucinations
Heart problems
Mental health disorders
Importance for India
The recent NCB operation highlights:
Growing international drug trafficking networks
Challenges of narco-terrorism
Need for stronger cross-border intelligence sharing
India’s anti-drug agencies are increasingly focusing on synthetic drug trafficking and transnational organized crime.
The Central Bureau of Investigation (CBI) recently launched ABHAY, an AI-based helpbot for verification of CBI notices to combat the growing menace of cyber fraud and “digital arrest” scams.
About ABHAY System
ABHAY stands for AI-Based Helpbot for Authentication of Your Notice.
It is an AI-powered notice verification platform developed by the CBI.
The system enables citizens to verify whether a notice issued in the name of the CBI is genuine or fake.
Objective of the System
The platform has been launched to:
Prevent cyber-enabled frauds
Counter impersonation scams
Protect citizens from fake “digital arrest” threats
Verify authenticity of CBI notices in real time
It is India’s first real-time notice authentication platform specifically designed to tackle fake law-enforcement notices and AI-enabled frauds.
Background: Rise of Digital Arrest Scams
Fraudsters increasingly use:
Fake police or CBI notices
AI-generated voice and video content
Deepfake technology
Impersonation tactics
Victims are often threatened with:
Arrest
Legal action
Money laundering accusations
Cybercrime allegations
These scams exploit fear and urgency to extort money from citizens.
How Does the ABHAY System Work?
Verification Process
Citizens receiving notices in the name of the CBI can upload scanned copies of the notice.
OTP-based verification is completed by the user.
The AI-powered system analyses the uploaded document.
The platform identifies whether the notice is:
Genuine
Potentially fraudulent
Key Features
AI-based authentication
Real-time verification
24×7 availability
User-friendly interface
Dedicated online verification portal
The system is accessible through:
Official CBI website
ABHAY Verification Platform
Significance of ABHAY
Cybersecurity Enhancement
Strengthens India’s fight against cybercrime and online fraud.
Helps counter AI-enabled criminal activities.
Citizen Protection
Builds public trust in digital law enforcement communication.
Prevents financial exploitation and psychological intimidation.
Technological Innovation
Demonstrates the use of Artificial Intelligence in governance and policing.
Encourages digital public safety mechanisms.
Combating Deepfake Threats
The platform becomes particularly relevant as:
Deepfake technologies become more sophisticated
Cybercriminals increasingly misuse AI tools
Digital impersonation cases rise globally
Challenges
Digital Awareness
Many citizens may still lack awareness about online fraud prevention mechanisms.
Evolving Cyber Threats
Cybercriminals continuously adapt and develop advanced fraud techniques.
Data Security Concerns
Protection of uploaded personal documents and sensitive information remains important.
Way Forward
Increase public awareness campaigns regarding cyber fraud.
Integrate AI systems with broader cybercrime monitoring frameworks.
Strengthen digital literacy and cyber hygiene practices.
Improve coordination among law enforcement agencies.
Conclusion
The ABHAY system represents a significant step in India’s evolving cybersecurity framework. By leveraging Artificial Intelligence for real-time verification of official notices, the CBI aims to protect citizens from digital arrest scams and impersonation frauds. The initiative highlights the growing role of AI in strengthening governance, law enforcement, and public trust in the digital age.
Recently, India was nominated as the Chair of the Common Criteria Development Board (CCDB) for the period April 2026 to April 2028, marking a major milestone in India’s growing role in global cybersecurity governance.
About Common Criteria Development Board (CCDB)
The Common Criteria Development Board serves as the technical core of the Common Criteria Recognition Arrangement (CCRA).
It focuses on developing and maintaining technical standards and evaluation criteria used to certify secure Information Technology (IT) products globally.
About Common Criteria Recognition Arrangement (CCRA)
The CCRA is an international arrangement that enables mutual recognition of IT security certificates among participating nations. It ensures that IT products evaluated and certified in one member country are trusted and accepted in other member countries.
India became a member of the CCRA on 16 September 2013 as a Certificate Authorizing Nation.
Membership
20 Certificate-Authorizing Nations
18 Certificate-Consuming Nations
Nodal Agencies in India
India is represented through:
Ministry of Electronics and Information Technology (MeitY)
STQC Directorate
The STQC Directorate functions as the official Certification Body for IT security evaluations in India.
Key Functions of CCDB
Common Evaluation Methodology (CEM)
Manages technical work related to:
Common Criteria (CC)
Common Evaluation Methodology (CEM)
Global IT Security Standards
Develops frameworks for secure technology certification
Ensures interoperability and cybersecurity trust across nations
Portal Management
Maintains the Common Criteria Portal
Acts as the global repository of certified secure IT products
Technical Work Programmes
Coordinates international collaboration on secure technology evaluation and certification
Significance for India
Cybersecurity Leadership
India’s chairmanship reflects increasing global confidence in India’s cybersecurity capabilities and digital governance ecosystem.
Boost to ‘Digital India’
Strengthens India’s position in secure digital infrastructure, trusted electronics, and cyber resilience.
Support for Indigenous Technology
Indian IT and hardware products certified under CC standards gain wider international acceptance.
Strategic Importance
Enhances India’s role in global cyber diplomacy and emerging technology governance.
The National Crime Records Bureau released the Crime in India 2024 and Accidental Deaths & Suicides in India (ADSI) 2024 reports, presenting important data on crime trends, cyber offences, suicides, crimes against vulnerable groups, and internal security challenges across the country.
The reports reveal that while India witnessed a decline in overall cognisable crimes in 2024, there has been a sharp rise in cybercrime, economic offences, suicides, and drug overdose deaths, reflecting deeper socio-economic and technological challenges confronting governance institutions.
Overall Crime Trends in India
India recorded 58.86 lakh cognisable crimes in 2024, compared to 62.41 lakh cases in 2023, marking a decline of nearly 6%.
Similarly, the national crime rate declined from 448.3 per lakh population in 2023 to 418.9 in 2024.
Out of the total registered crimes:
35.44 lakh cases were registered under the IPC/Bharatiya Nyaya Sanhita (BNS)
23.41 lakh cases were registered under Special and Local Laws (SLL)
The decline indicates some improvement in policing efficiency and law enforcement mechanisms. However, experts caution that emerging forms of digital and economic crimes are increasingly replacing conventional crimes.
Surge in Cybercrime
Cybercrime emerged as the fastest-growing category of crime in India.
Cybercrime cases increased by 17.9%, rising from 86,420 cases in 2023 to 1,01,928 cases in 2024. The cybercrime rate also increased from 6.2 to 7.3 per lakh population.
The majority of cybercrime cases were related to cyber fraud, accounting for nearly 72.6% of total cyber offences.
Other major categories included:
Sexual exploitation
Extortion
Identity defamation
Personal revenge
State-wise Trends
Telangana recorded the highest number of cybercrime cases, followed by Karnataka.
Metropolitan cities alone registered nearly 35,000 cybercrime cases in 2024.
The NCRB data also highlights serious institutional weaknesses:
Over 1.2 lakh cybercrime cases remain pending investigation.
Nearly 75,000 cases are pending trial.
The findings underline India’s growing digital vulnerability and the urgent need for:
Cyber policing reforms
Digital forensic capacity
Interstate coordination
Cyber awareness programmes
Rise in Economic Offences
Economic offences increased by 4.6%, rising from 2,04,973 cases in 2023 to 2,14,379 cases in 2024.
The largest component was:
Forgery, cheating and fraud, accounting for nearly 90% of economic offences.
The increase reflects:
Expansion of digital financial frauds
Growth of online scams
Weak consumer cyber protection systems
The report highlights the need for stronger:
Fintech regulation
Digital governance
Financial monitoring mechanisms
Crimes Against Women
Crimes against women declined marginally from 4.48 lakh cases in 2023 to 4.41 lakh cases in 2024.
The crime rate against women declined from 66.2 to 64.6 per lakh women population.
The data suggests that legal reforms alone remain insufficient without broader social transformation and gender sensitisation.
Crimes Against SCs and STs
Cases registered against Scheduled Castes (SCs) declined slightly, while crimes against Scheduled Tribes (STs) witnessed a sharper decline.
States reporting the highest cases included:
Uttar Pradesh
Madhya Pradesh
Bihar
Rajasthan
Maharashtra
However, experts caution that a decline in registered cases does not necessarily imply reduction in caste discrimination. It may also indicate:
Fear of social backlash
Weak access to justice
Poor reporting mechanisms
Child Safety and Juvenile Concerns
Missing children cases increased by 7.8%, reaching 98,375 cases in 2024.
Girls constituted the overwhelming majority of missing children cases.
The NCRB report also highlighted rising concerns regarding:
Child trafficking
Urban vulnerability
Juvenile delinquency
Children in conflict with law
Delhi recorded the highest number of juvenile crime cases among metropolitan cities.
The trends point toward the urgent need for stronger child protection systems and social support mechanisms.
Suicides and Social Distress
According to the ADSI report, India recorded 1,70,746 suicides in 2024.
Most Vulnerable Groups
Agriculture Sector
More than 10,500 suicides were linked to the agriculture sector, including:
Farmers/cultivators
Agricultural labourers
Other Vulnerable Sections
Daily wage workers
Students
Homemakers
Unemployed persons
The figures reveal:
Economic insecurity
Agrarian distress
Mental health crisis
Social isolation
Financial instability
The growing suicide burden reflects broader socio-economic stress within society.
Drug Overdose Deaths
Drug overdose deaths increased sharply by nearly 50% in 2024.
States reporting the highest deaths included:
Tamil Nadu
Punjab
Madhya Pradesh
The trend highlights:
Expanding narcotics networks
Weak rehabilitation systems
Growing youth vulnerability
The issue is increasingly emerging as both a public health and internal security challenge.
Crimes Against the State
Cases categorised as “crimes against the state” increased by 6.6% in 2024.
Major laws involved included:
Prevention of Damage to Public Property Act
Unlawful Activities (Prevention) Act (UAPA)
The rise reflects continuing concerns regarding:
Extremism
Internal security
Public order challenges
Key Challenges Highlighted by NCRB Data
Institutional Challenges
Judicial delays
Cyber investigation pendency
Low conviction rates
Forensic infrastructure gaps
Social Challenges
Gender violence
Mental health crisis
Drug addiction
Agrarian distress
Governance Challenges
Weak inter-agency coordination
Inadequate rehabilitation systems
Lack of cyber awareness
Way Forward
India requires a comprehensive approach involving:
Expansion of cybercrime police infrastructure
Fast-track courts for cyber and economic offences
Technology-enabled policing
Stronger mental health support systems
Women and child protection mechanisms
Drug rehabilitation programmes
Greater public awareness and digital literacy
Conclusion
The NCRB’s Crime in India 2024 report presents a complex picture of India’s internal security and social landscape. While conventional crime rates have declined, the rapid rise in cybercrime, economic fraud, suicides, and drug abuse indicates the emergence of new-age governance challenges. The findings underscore the urgent need for modernised policing, stronger cyber governance, social protection mechanisms, and inclusive development policies to ensure justice, security, and public trust in an increasingly digital society.
Recently, INS Sudarshini visited Antigua after successfully completing a historic trans-Atlantic passage as part of the ongoing Lokayan 26 Expedition. The voyage highlights India's growing maritime outreach and commitment to strengthening international naval cooperation.
About Lokayan 26
Lokayan 26 is a landmark 10-month transoceanic expedition being undertaken by the Indian Navy's sail training ship, INS Sudarshini.
The expedition aims to promote maritime diplomacy, enhance seamanship skills, and strengthen India's engagement with partner nations across the globe. During the voyage, the ship will traverse major oceanic routes and serve as a symbol of India's maritime heritage and naval professionalism.
Key Features
Duration: 10 months
Distance Covered: More than 22,000 nautical miles
Foreign Ports: 18 ports
Countries Covered: 13 countries
Platform: INS Sudarshini
The expedition is also aligned with India's maritime vision of MAHASAGAR (Mutual and Holistic Advancement for Security and Growth Across Regions), which emphasizes regional cooperation, maritime security, and sustainable development.
Training Component
A major objective of Lokayan 26 is capacity building and practical training.
During the expedition:
More than 200 trainees from the Indian Navy and Indian Coast Guard will participate.
Trainees will receive intensive sail training.
Participants will gain hands-on experience in:
Long-range ocean navigation
Traditional seamanship
Maritime leadership
Weather assessment and survival skills
Teamwork and endurance at sea
Such training helps develop resilience, discipline, and professional competence among future maritime officers.
Strategic Significance
Maritime Diplomacy
Visits to foreign ports provide opportunities for:
Naval cooperation
Cultural exchanges
Bilateral engagement
Goodwill missions
Strengthening MAHASAGAR Vision
The expedition contributes to India's vision of fostering a secure, stable, and prosperous maritime environment through collaboration and mutual trust.
Showcasing India's Maritime Heritage
Sailing vessels like INS Sudarshini symbolize India's rich seafaring traditions while promoting modern naval capabilities.
About INS Sudarshini
INS Sudarshini is an indigenously built Sail Training Ship (STS) of the Indian Navy.
Development
Built by: Goa Shipyard Limited
Commissioned: 27 January 2012
Home Base: Kochi, Kerala
Operational Command: Southern Naval Command
The ship was designed to provide practical sailing experience and preserve traditional seamanship skills within the Indian Navy.
Features of INS Sudarshini
Sail Training Platform
The ship trains naval personnel in:
Sailing techniques
Navigation
Weather interpretation
Emergency handling
Leadership at sea
High Endurance
INS Sudarshini can remain continuously deployed at sea for approximately 20 days, making it suitable for long-distance training voyages.
Character Building
The ship's training philosophy focuses on:
Self-reliance
Discipline
Courage
Team spirit
Adaptability in challenging maritime conditions
These qualities are essential for naval officers operating in diverse ocean environments.
Conclusion
Lokayan 26 represents a significant step in India's maritime engagement strategy. Through international outreach, sail training, and promotion of the MAHASAGAR vision, the expedition strengthens India's role as a responsible maritime power. The journey of INS Sudarshini not only enhances operational skills among trainees but also reinforces India's commitment to maritime cooperation, cultural diplomacy, and naval excellence.
India has recently tested the SACHET Cell Broadcast System, an indigenous emergency alert mechanism aimed at delivering real-time warnings to citizens during disasters and crises. On May 2, 2026, a nationwide test alert with a loud siren and pop-up notification was sent across mobile phones, marking a major step in India’s disaster preparedness.
Context
India is highly vulnerable to disasters such as cyclones, floods, earthquakes, and industrial accidents. Timely dissemination of warnings is crucial to minimize loss of life and property. Traditional SMS-based systems often face delays and network congestion, necessitating a more efficient solution.
What is SACHET?
SACHET (meaning “alert”) is an Integrated Emergency Alert System designed to send instant, geo-targeted warnings to mobile users.
Institutional Framework
Launched by Department of Telecommunications (DoT)
Developed in collaboration with National Disaster Management Authority (NDMA)
Covers all 36 States and Union Territories
Key Features
Real-time alerts during natural and man-made disasters
Geo-targeted messaging based on affected regions
No internet required
Multi-language support (19 languages)
One-way communication system
Can reach billions within seconds
How Cell Broadcast Technology Works
Cell Broadcast (CB) transmits messages through mobile towers to all devices within a specific area.
Uses existing cellular infrastructure
Sends one message to multiple users simultaneously
Works even during network congestion
Does not require phone numbers (privacy-friendly)
Cell Broadcast vs SMS
Feature
Cell Broadcast
SMS
Communication
One-to-many
One-to-one
Speed
Instant
Delayed during congestion
Targeting
Location-based
Number-based
Internet
Not required
Not required
Visibility
Loud alerts + pop-up
Easy to ignore
Privacy
No user data needed
Requires phone numbers
Global Context
Developed by the European Telecommunications Standards Institute (ETSI) in the 1990s
Used by over 30 countries
Widely implemented in countries like Japan for tsunami warnings
Significance
1. Improved Disaster Preparedness
Enables early warnings, reducing casualties and damage
2. Last-Mile Connectivity
Ensures alerts reach even remote populations
3. Alignment with Global Initiatives
Supports UN’s “Early Warnings for All” initiative
4. Technological Advancement
Reduces dependency on SMS-based systems
Challenges
Awareness among citizens about interpreting alerts
Integration with local disaster management systems
Ensuring reliability in low-network areas
Full-scale rollout timeline still unclear
Way Forward
Conduct regular nationwide mock drills
Increase public awareness and training
Integrate with state-level disaster response systems
Expand language and accessibility features
Conclusion
The SACHET Cell Broadcast System represents a transformative step in India’s disaster management strategy. By ensuring rapid, reliable, and targeted communication, it enhances resilience and safeguards lives. Its effective implementation will be crucial in building a disaster-ready India.
Recently, NASA’s MAVEN Spacecraft observed the Zwan-Wolf Effect in the atmosphere of Mars for the first time, providing important insights into how the Martian atmosphere interacts with the solar wind.
About Zwan-Wolf Effect
The Zwan-Wolf Effect is a process in which charged particles are compressed or squeezed along magnetic field structures called flux tubes.
The phenomenon was first discovered in 1976.
Earlier, it had only been observed in planetary magnetospheres and never within a planetary atmosphere.
How Does the Zwan-Wolf Effect Occur?
Role of Solar Wind
The solar wind is a continuous stream of charged particles emitted by the Sun.
Interaction with Magnetic Fields
As solar wind approaches a planet’s magnetic field, it gets compressed near magnetic boundaries.
This creates a pressure gradient.
Compression of Charged Particles
The pressure difference pushes charged particles along magnetic field lines or flux tubes.
As particles move away from the solar wind stream:
A low-density region of charged particles forms.
This process is known as the Zwan-Wolf Effect.
Importance on Earth
On Earth:
Earth’s global magnetic field deflects much of the harmful solar wind.
This magnetic shielding protects:
Atmosphere
Satellites
Life forms from solar radiation and charged particles.
Why the Discovery on Mars is Important
Mars Lacks a Global Magnetic Field
Unlike Earth, Mars does not possess a strong global magnetosphere.
As a result:
Its atmosphere is directly exposed to solar wind.
Atmospheric particles can gradually escape into space.
Observation in Martian Ionosphere
The Zwan-Wolf Effect was detected in the:
Martian ionosphere
At altitudes below 200 km
The ionosphere contains:
Electrically charged particles (ions and electrons)
Key Findings
MAVEN data showed:
Charged particles were being squeezed and redistributed around Mars’ atmosphere.
Similar solar wind interactions can occur even without a global magnetic field.
Scientific Significance
Understanding Atmospheric Loss
The findings help scientists understand:
How Mars lost much of its early atmosphere
Evolution of Martian climate over time
Space Weather Research
The discovery improves knowledge regarding:
Solar wind interactions
Planetary atmospheres
Space weather effects
Comparative Planetology
The observation enables comparison between:
Earth’s protected atmosphere
Mars’ vulnerable atmosphere
About MAVEN Spacecraft
Full Form
Mars Atmosphere and Volatile EvolutioN (MAVEN)
Mission Details
Part of NASA’s Mars Exploration Program
First mission dedicated to studying Mars’ upper atmosphere
Launch and Arrival
Launched: November 2013
Reached Mars: September 2014
Objectives of MAVEN
The mission aims to study:
Atmospheric escape
Interaction of solar wind with Mars
Climate evolution of Mars
MAVEN concluded that:
Mars lost nearly two-thirds of its early atmosphere to space.
Instrument Packages on MAVEN
1. Solar Wind Package
Studies solar wind interaction with Mars’ ionosphere.
2. Ultraviolet Spectrometer
Examines the upper atmosphere.
3. Mass Spectrometer
Studies atmospheric composition.
Conclusion
The discovery of the Zwan-Wolf Effect in the Martian atmosphere marks a major advancement in planetary science. It highlights that even planets without a global magnetic field can experience complex solar wind interactions. The findings from MAVEN deepen our understanding of Mars’ atmospheric evolution, climate history, and the broader dynamics of planetary atmospheres in the solar system.
Recently, the Union Minister of Earth Sciences inaugurated India's first SkyCast System at the Indira Gandhi International (IGI) Airport, New Delhi. The system marks a significant milestone in aviation meteorology and weather forecasting, making India the 19th country in the world to deploy an advanced integrated aviation weather monitoring system.
About SkyCast System
SkyCast is an advanced integrated aviation weather monitoring and forecasting system developed under Mission Mausam, a flagship initiative of the Ministry of Earth Sciences aimed at enhancing India's weather prediction capabilities.
The scientific foundation of SkyCast is based on the Winter Fog Experiment (WiFEX), a collaborative project launched by the India Meteorological Department (IMD) and the Indian Institute of Tropical Meteorology (IITM), Pune at IGI Airport in 2015.
The system integrates multiple state-of-the-art atmospheric monitoring technologies into a unified weather intelligence framework, enabling real-time assessment of weather conditions affecting aviation operations.
Key Features of SkyCast System
Integrated Weather Intelligence Platform
SkyCast combines real-time measurements of:
Fog
Aerosols
Turbulence
Moisture
Visibility
Atmospheric dynamics
This integration provides a comprehensive picture of weather conditions critical for safe and efficient aviation operations.
Radar Wind Profiler (RWP)
The Radar Wind Profiler forms the core of the SkyCast system.
It measures:
Wind speed
Wind direction
Turbulence
Vertical velocity
Boundary-layer dynamics
These parameters are crucial for aircraft take-off, landing, and flight safety.
Ground-based Fog Aerosol Spectrometer (GFAS)
GFAS is an advanced instrument used for monitoring:
Fog droplets
Aerosol particles
Aerosol-fog interactions
The data helps improve understanding of fog formation and visibility conditions around airports.
CL61 Lidar-based Ceilometer
The ceilometer continuously monitors:
Vertical structure of fog
Cloud base height
Visibility conditions
It provides real-time information essential for aviation weather forecasting.
Operational Capabilities
SkyCast can assess atmospheric conditions from the earth's surface up to nearly 10 kilometres altitude.
The system generates critical aviation meteorological parameters such as:
Wind shear
Turbulence indicators
Fog formation probability
Icing potential
Visibility forecasts
These parameters help airport authorities and pilots make informed operational decisions.
Significance of SkyCast
Improved Aviation Safety
The system provides real-time weather intelligence to:
Pilots
Air Traffic Controllers
Airport authorities
This improves situational awareness and enhances flight safety.
Reduction in Flight Disruptions
Dense fog and turbulence frequently affect flight operations, especially during winter months in northern India.
SkyCast can help reduce:
Flight delays
Diversions
Cancellations
Operational costs
Support for Advanced Forecasting
The platform contributes to:
High-resolution weather forecasting
AI-enabled decision support systems
Aviation weather modelling
Early warning services
Wider Applications
Beyond aviation, SkyCast can support:
Urban weather forecasting
Air pollution management
Transport advisories
Disaster preparedness and response
Climate and atmospheric research
Mission Mausam
Mission Mausam is a flagship programme of the Ministry of Earth Sciences aimed at transforming India's weather and climate services through advanced observations, modelling, artificial intelligence, and next-generation forecasting technologies.
The initiative seeks to improve the accuracy and timeliness of weather forecasts and strengthen climate resilience across sectors.
Conclusion
The SkyCast System represents a major advancement in India's meteorological and aviation infrastructure. By integrating cutting-edge atmospheric sensing technologies into a single platform, it enhances aviation safety, improves operational efficiency, and strengthens weather forecasting capabilities. Its successful deployment at IGI Airport is expected to serve as a model for future expansion across other major airports in India.
Recently, Hyderabad-based startup Dhruva Space secured ₹105 crore under the Research, Development & Innovation Fund (RDIF) for the development of “Project Garud”. The initiative marks a significant step in strengthening India’s indigenous private-sector satellite manufacturing capabilities and advancing the country’s commercial space ecosystem.
About Project Garud
Project Garud is a satellite platform programme launched by Dhruva Space to develop a flat-pack 500 kg-class satellite platform capable of scalable and high-volume manufacturing. The project aims to bridge the technological and operational gap between smaller experimental satellites and large conventional spacecraft systems.
The platform is being designed as a standardized and production-oriented spacecraft architecture capable of supporting multiple mission configurations. It is expected to cater to applications in:
Telecommunications
National Security
Earth Observation
Data-driven and AI-enabled services
Remote sensing and connectivity solutions
Key Features of Project Garud
1. Flat-Pack Satellite Architecture
The platform introduces a flat-pack design that enables:
Efficient launch stacking
Faster integration of systems
Reduced launch costs
Improved deployment timelines
This architecture is particularly useful for large-scale satellite constellations.
2. High-Volume Manufacturing
Dhruva Space plans to establish industrial infrastructure and tooling systems to enable mass production of satellites.
3. Production Capacity
The roadmap targets manufacturing of:
Up to 2 satellites per day
Nearly 500–600 satellites annually
This would significantly enhance India’s commercial satellite production capabilities.
4. Standardized Satellite Bus
The platform is intended to function as a modular spacecraft system that can be customized for various missions while maintaining manufacturing efficiency.
Significance of Project Garud
Strengthening India’s Space Economy
Project Garud aligns with India’s vision of becoming a global space manufacturing and launch hub.
Encouraging Private Sector Participation
The project reflects the growing role of private companies in India’s space sector following space sector reforms and increased collaboration with Indian Space Research Organisation.
Boost to National Security
Indigenous satellite manufacturing reduces dependence on foreign technologies and supports strategic communication and surveillance capabilities.
Support for NewSpace Ecosystem
The initiative contributes to India’s emerging “NewSpace” ecosystem involving startups, commercial launch services, and satellite applications.
Employment and Technological Innovation
Large-scale manufacturing infrastructure can generate high-skilled employment and promote innovation in aerospace engineering, electronics, AI, and data systems.
Challenges
Despite its potential, the project may face challenges such as:
High capital requirements
Global competition in satellite manufacturing
Supply chain dependencies
Need for advanced semiconductor and electronics ecosystem
Space debris management concerns due to satellite constellations
Conclusion
Project Garud represents a major milestone in India’s transition from a government-led space programme to a commercially competitive space ecosystem. By focusing on scalable satellite manufacturing and advanced spacecraft architecture, the initiative can strengthen India’s position in the global space economy and support strategic, scientific, and commercial objectives.
India has taken a significant step in enhancing its maritime combat capability with the successful salvo test of the indigenously developed Naval Anti-Ship Missile Short Range (NASM-SR). The test, conducted by the Defence Research and Development Organisation (DRDO) in collaboration with the Indian Navy, involved firing two missiles in quick succession from a helicopter off the Odisha coast. This marks the first successful salvo launch of an anti-ship missile from a rotary-wing platform in India, reflecting a major advancement in naval warfare technology.
Background and Significance of the Test
The NASM-SR has been designed specifically for deployment from ship-borne helicopters, offering enhanced operational flexibility compared to traditional ship-launched missile systems. The ability to launch missiles from helicopters allows naval forces to strike targets beyond the horizon while keeping their ships at a safe distance from potential threats.
The recent test demonstrated the missile’s capability to perform a salvo launch, where multiple missiles are fired in rapid succession. This capability is critical in modern warfare as it can overwhelm enemy ship defence systems, thereby increasing the probability of successful target neutralisation. It also showcases India’s growing expertise in integrating advanced weapon systems with aerial platforms.
Role of Helicopter-Launched Missiles in Naval Warfare
Helicopter-launched missile systems have become a key component of modern naval operations. They enable navies to extend their strike range without exposing high-value assets such as warships to direct threats.
These systems are particularly useful in anti-surface warfare, where the objective is to detect and neutralise enemy vessels. Helicopters can operate from ships and quickly reach forward positions, allowing them to launch missiles at hostile targets with precision.
The Indian Navy has previously used systems like the British-origin Sea Eagle missile deployed on Sea King 42B helicopters. However, such legacy systems have become technologically outdated, necessitating the development of advanced indigenous alternatives like NASM-SR.
Need for NASM-SR: Modernisation of Naval Arsenal
The older Sea Eagle missile, introduced in the 1980s, had several limitations. Weighing approximately 580 kg, it restricted the number of missiles that a helicopter could carry. Additionally, it lacked modern features such as real-time guidance and advanced targeting capabilities.
To overcome these challenges, DRDO initiated the development of NASM-SR in the early 2010s. The project involved multiple premier laboratories, including:
Research Centre Imarat (Hyderabad)
Defence Research and Development Laboratory
High Energy Materials Research Laboratory (Pune)
Terminal Ballistics Research Laboratory (Chandigarh)
The programme also incorporated private sector firms, MSMEs, and start-ups, aligning with India’s push for self-reliance in defence manufacturing (Atmanirbhar Bharat).
Design and Key Features of NASM-SR
The NASM-SR missile is designed with a two-stage propulsion system, consisting of:
A solid booster rocket for initial acceleration
A long-burn sustainer engine for extended flight
It is equipped with advanced subsystems such as:
Seeker for target detection and tracking
Radio altimeter for accurate altitude measurement
Two-way data link for real-time communication
Weighing around 380 kg, it is significantly lighter than older missiles, enabling helicopters to carry more weapons and enhancing operational flexibility. Although its range is about 55 km, which is lower than some legacy systems, it compensates with improved accuracy, adaptability, and survivability.
The missile uses a radio proximity fuse, ensuring detonation when it reaches close proximity to the target, thereby maximising damage.
Advanced Capabilities
1. ‘Man-in-Loop’ Guidance
One of the most important features of NASM-SR is its “man-in-loop” capability. This allows a human operator to monitor and modify the missile’s trajectory during flight through a high-bandwidth data link.
This capability provides:
Real-time control and flexibility
Higher precision in targeting
Reduced risk of collateral damage
Unlike traditional “fire-and-forget” missiles, this feature makes NASM-SR highly effective in dynamic combat scenarios, especially in crowded maritime environments.
2. ‘Waterline Hit’ Capability
Another critical feature is the missile’s ability to target the waterline of an enemy ship. The waterline is structurally vulnerable, and a strike in this region can lead to rapid flooding and potentially sink the vessel.
This precision targeting significantly enhances the missile’s lethality compared to older systems that lacked such capabilities.
Operational Significance of the Salvo Test
The successful firing of two missiles in quick succession demonstrates the system’s readiness for real-world combat scenarios. The key operational advantages include:
Ability to overwhelm enemy defence systems
Increased probability of successful target destruction
Enhanced multi-target engagement capability
Improved survivability of launch platforms
This marks a major leap in India’s naval strike capability, combining precision, flexibility, and effectiveness.
Strategic Implications for India
The NASM-SR programme reflects India’s growing emphasis on indigenous defence development and technological self-reliance. It strengthens the Indian Navy’s ability to maintain sea control and operate effectively in contested maritime environments, particularly in the Indian Ocean Region (IOR).
The development of such advanced systems also enhances India’s deterrence capability and positions it as a significant player in global defence technology.
Conclusion
The successful NASM-SR salvo test represents a transformative step in India’s naval warfare capabilities. By integrating advanced technologies such as real-time guidance and precision targeting, India has significantly enhanced its ability to conduct effective maritime operations.
As geopolitical competition intensifies in maritime domains, systems like NASM-SR will play a crucial role in ensuring national security, operational readiness, and strategic dominance at sea.
Researchers at the Jawaharlal Nehru Centre for Advanced Scientific Research (JNCASR) have developed a novel imaging platform called CLEAR (Cleavable Light-Erased Antibody Reporter) technology. The innovation is expected to significantly improve protein visualization and spatial mapping inside biological samples.
About CLEAR Technology
CLEAR (Cleavable Light-Erased Antibody Reporter) is an advanced protein imaging platform developed by researchers at JNCASR, Bengaluru, with collaboration from the Indian Institute of Science (IISc).
The technology enables scientists to visualize and map a large number of proteins within the same biological sample using a single fluorescent marker. It addresses a major challenge in modern biological imaging known as spatial protein mapping.
How CLEAR Technology Works
CLEAR technology uses a special:
Light-cleavable probe system
This system allows repeated cycles of:
Protein labelling
Imaging
Signal removal
Re-labelling
Mechanism
Proteins in a cell are tagged with fluorescent probes.
Scientists capture images of the proteins.
The fluorescent signal is erased using a gentle 365 nm LED light pulse.
A new set of proteins is then labelled and imaged in the same sample.
This cycle can be repeated multiple times within the same spectral window.
Key Features of CLEAR Technology
1. High Multiplexing Capability
The technology can visualize many proteins sequentially in the same sample without requiring multiple fluorescent colours.
This overcomes limitations of conventional imaging methods.
2. Single Fluorescent Marker Usage
Traditional imaging techniques require multiple fluorescent dyes.
CLEAR instead uses:
One spectral window
Repeated erase-and-reuse imaging cycles
This simplifies imaging and improves efficiency.
3. Light-Based Signal Erasure
The fluorescent signal can be gently removed using:
365 nm LED light
This process:
Minimizes damage to cells
Preserves sample quality
Allows repeated imaging cycles
4. Compatibility with Delicate Samples
CLEAR works effectively with:
Live cells
Fragile tissues
Complex biological systems
This makes it highly useful for biomedical research.
5. High Spatial Resolution
The technology generates highly detailed protein maps from:
Single cells
Tissue sections
Immune cell systems
This improves understanding of cellular organization and interactions.
Significance of CLEAR Technology
1. Improved Disease Detection
CLEAR may help in:
Early cancer detection
Identification of neurological disorders
Molecular-level disease analysis
Detailed protein mapping can reveal disease-related abnormalities at an early stage.
2. Better Understanding of Immune Responses
The technology helps scientists study:
Immune cell interactions
Cellular signalling pathways
Behaviour of proteins inside cells
This is important for immunology and vaccine research.
3. Advancement in Precision Medicine
CLEAR can contribute to:
Personalized medicine
Targeted therapies
Patient-specific treatment strategies
Detailed molecular analysis may allow doctors to design more precise treatments.
4. Scientific and Research Applications
Potential applications include:
Cancer biology
Neuroscience
Drug development
Cellular biology
Molecular diagnostics
Advantages over Conventional Imaging Techniques
Compared to existing multiplex imaging methods, CLEAR offers:
Faster imaging
Higher multiplexing
Better spatial resolution
Lower cellular damage
Compatibility with live cells
This makes it a major advancement in bioimaging technology.
Role of JNCASR
The Jawaharlal Nehru Centre for Advanced Scientific Research (JNCASR) is an autonomous research institution under the Department of Science and Technology (DST), Government of India.
It conducts advanced interdisciplinary scientific research in:
Materials science
Biology
Chemistry
Nanotechnology
Computational sciences
Conclusion
CLEAR technology represents a major breakthrough in biological imaging and protein mapping. By enabling repeated high-resolution imaging within the same biological sample, it can transform disease detection, biomedical research, and precision medicine. The innovation also highlights India’s growing capabilities in advanced scientific research and biotechnology.
India’s private space sector achieved a major milestone with the launch of Drishti, the first satellite by GalaxEye, aboard a SpaceX Falcon 9 rocket from Vandenberg Space Force Base, USA. It was part of the CAS500-2 mission carrying multiple payloads. Founded by IIT Madras alumni, GalaxEye has introduced a pioneering technology in Earth observation.
What is Space Imaging?
Space imaging involves collecting visual and electromagnetic data from space to monitor Earth and study celestial bodies. It uses various sensors to convert signals from different parts of the electromagnetic spectrum into high-resolution images.
Key Technologies Used
Optical Sensors: Capture visible light for clear and detailed images.
Synthetic Aperture Radar (SAR): Uses microwave signals, enabling imaging through clouds and at night.
Infrared & Thermal Imaging: Detect heat patterns for climate studies and disaster monitoring.
Hyperspectral Imaging: Identifies material composition by analysing multiple light bands.
AI & Cloud Computing: Enable real-time processing and analysis of vast data.
Limitations of Existing Systems
Traditional satellites rely on either optical or SAR imaging:
Optical images are clear but fail during clouds or darkness.
SAR works in all conditions but produces complex, non-intuitive images.
Combining both datasets is difficult due to differences in timing and viewing angles.
What Makes Drishti Unique?
Drishti introduces Opto-SAR technology, the world’s first system to simultaneously capture optical and radar images of the same location. This eliminates alignment issues and provides both clarity and reliability in a single dataset.
Technological Innovation
Synchronising optical and SAR sensors is challenging due to their different operating mechanisms and viewing geometries. GalaxEye developed a proprietary synchronisation system ensuring both sensors observe the exact same point simultaneously.
Role of Artificial Intelligence
Drishti uses AI to generate optical-like images from SAR data when visibility is poor, bridging the gap between interpretability and all-weather imaging.
Why This Matters for India
India’s tropical climate often faces heavy cloud cover, making traditional optical imaging unreliable. Drishti addresses this challenge, making space data consistently accessible and usable, especially for developing regions.
Applications
Agriculture monitoring
Disaster management
Urban planning
Infrastructure monitoring
Border surveillance
Defence intelligence
Boost to India’s Space Ecosystem
Drishti reflects the rise of private space innovation in India, supported by the Space Policy 2023, which opened the sector to private players. Start-ups like Agnikul Cosmos, Skyroot, Pixxel, and Dhruva Space are also contributing significantly.
