Subject: Science and Technology

Why in the News?

The Ukraine War, the Israel-Hezbollah conflict, and broader West Asian confrontations demonstrate that mass-produced unmanned aerial systems (UAS) have become central to modern warfare. For the first time, relatively inexpensive, commercially derived drones have challenged the dominance of traditional military platforms such as tanks, artillery, combat aircraft, and precision-guided missile systems.

Why has the traditional model of military superiority been challenged?

1. Conventional Military Paradigm: Battlefield superiority historically depended on combat aircraft, tanks, artillery, warships, air-defence systems, precision-guided missiles, and advanced intelligence networks.
2. Resource Advantage: Large military budgets enabled technologically advanced states to dominate battlefields.
3. Asymmetric Warfare: Smaller states and non-state actors relied on guerrilla tactics, ambushes, and unconventional warfare to offset conventional disadvantages.
4. Paradigm Shift: Commercially derived drones have disrupted this model by providing low-cost precision strike capabilities at scale.
5. Persistent Battlespace: Modern battlefields no longer provide safe rear areas as drones can detect, track, and engage targets across the operational depth.

How has the Ukraine War become the laboratory of industrial-scale drone warfare?

1. Rapid Adaptation: Ukraine converted commercially available drones originally designed for photography, mapping, and surveillance into military platforms.
2. Transformation of Role: Drones evolved from intelligence-gathering tools into active strike systems.
3. Full Integration: By 2024, drones became integrated across almost every layer of Ukrainian combat operations.
4. Operational Functions: Drones support battlefield surveillance, frontline targeting, artillery correction, logistics interdiction, and deep-strike missions.
5. Replication Effect: Ukraine’s drone warfare model has subsequently influenced conflicts across West Asia.
6. Historic First: Ukraine represents the world’s first industrial-scale, drone-intensive conflict.

How did FPV drones revolutionise battlefield operations?

First-Person View (FPV) drones allow you to fly while wearing specialized video goggles that stream a live, real-time feed directly from the drone’s onboard camera. Unlike standard camera drones that fly via GPS stabilization, FPV flying offers total acrobatic freedom and an immersive, cockpit-like experience.

1. FPV (First Person View) Technology: Uses onboard cameras transmitting live video feeds to operators through virtual-reality-style goggles.
2. Operational Advantage: Ensures precision, manoeuvrability, responsiveness, and low operational costs.
3. Combat Variants: Includes strike drones, bombers, interceptors, and long-range attack systems.
4. Cost Asymmetry: Systems costing only a few hundred dollars can destroy armoured vehicles and equipment worth millions.
5. Expanded Combat Envelope: Thermal-imaging and night-vision variants enable round-the-clock operations.

• Examples
  • Vampire Hexacopter (“Baba Yaga”): Heavy-lift drone used for combat missions.
  • FPV Kamikaze Drones: Quadcopters carrying explosive payloads such as: Rocket-propelled grenade (RPG) warheads. and Purpose-built munitions.

How has Ukraine developed a layered drone ecosystem?

1. Loitering Munitions
   1. RAM II: Short-range precision loitering munition used alongside reconnaissance drones.
   2. UJ-31 Zozulya: Aerially deployed “parasite drone” carried by the UJ-22 Airborne UAV to extend operational reach.
2. Reconnaissance Systems
   1. Shark Drone: Provides reconnaissance support.
   2. PD-2: Supports surveillance and targeting missions.
3. Bomber Drones
   1. DJI Mavic 3 Adaptations: Converted from civilian applications to military bomber roles.
   2. DJI Matrice 300 RTK Adaptations: Modified to carry Grenades, Anti-tank mines and Other munitions.
   3. Operational Benefit: Survive missions and conduct multiple sorties unlike kamikaze drones.
4. Deep Strike Systems
   1. Pegasus FPV Strike Drone: Supports tactical strike operations.
   2. One-Way Attack Drones: Conduct deep strikes against:
      1. Logistics hubs.
      2. Airbases.
      3. Critical infrastructure.
5. Parasite Drone Concept: UJ-31 Zozulya is carried by the UJ-22 Airborne UAV and released mid-air, extending operational range and penetration capability.

Why are fibre-optic drones considered a major battlefield innovation?

A fiber-optic drone is an unmanned aerial vehicle (UAV) that tethers to a ground controller via a thin, hair-like optical fiber cable. Deployed primarily as first-person view (FPV) loitering munitions or reconnaissance craft, they transmit control signals and high-bandwidth video through light, rendering them completely immune to electronic warfare (EW) jamming.

1. Electronic Warfare Resistance: Conventional drones rely on radio-frequency links vulnerable to jamming.
2. Fibre-Optic Guidance: Uses physical fibre-optic cables spooled during flight.
3. Reduced Vulnerability: Ensures mission continuity despite electronic warfare interference.
4. Operational Advantage: Enables operations in heavily contested electromagnetic environments.
5. Strategic Significance: Restores drone effectiveness where conventional systems would fail.

How does Hezbollah employ drones in its military strategy?

Iranian Supply Chain: Relies heavily on Iranian-origin drone platforms.

Key Platforms

1. Ababil Series: Supports ISR and strike missions.
2. Mohajer Series: Provides medium-range reconnaissance capabilities.
3. Shahed Series: Performs surveillance and attack functions.

Specific Systems

1. Mohajer-4: Provides ISR coverage.
2. Shahed-129: Supports medium- to long-range ISR missions.
3. Shahed-136: Functions as a dedicated one-way strike loitering munition.

Technological Adaptation

1. Fibre-Optic FPV Drones: Adopted to overcome Israeli electronic warfare measures.

How has Israel responded to the drone challenge?

1. Layered Counter-Drone Architecture
   1. Electronic Warfare Systems: Supports drone detection and disruption.
   2. Specialised Radar Arrays: Improves low-altitude drone tracking.
2. Emerging Technologies/AI-Enabled Iron Drone Raider:
   1. Neutralises drones through kinetic interception.
   2. Uses net capture mechanisms.
   3. Employs direct collision tactics.
   4. Reduces reliance on expensive missile interceptors.
3. Integrated UAV Force Structure
   1. Heron Systems: Provide long-endurance ISR coverage.
   2. Armed Drones: Support precision strike missions.
   3. Loitering Munitions: Enable rapid reconnaissance-strike integration.

How does Iran represent a distinct model of drone warfare?

1. Strategic Integration: Uses drones as instruments of national deterrence and power projection, not merely battlefield weapons.
2. Proxy Warfare Network: Supplies drone capabilities to allies and proxy groups across Iraq, Syria, Lebanon, and Yemen.
3. IRGC-Led Doctrine: Integrates drone development and deployment into the Islamic Revolutionary Guard Corps’ military strategy.
4. Indigenous Production: Manufactures Shahed-series drones domestically, ensuring scalability and strategic autonomy.
5. Low-Cost Regional Influence: Projects military power and threatens adversary assets across West Asia without maintaining expensive conventional air forces.

Why is the drone revolution fundamentally an economic revolution?

1. Cost Efficiency: Cheap unmanned systems replace expensive military platforms.
2. Production Scale: Industrial manufacturing capacity increasingly determines battlefield success.
3. Attrition Advantage: Large-scale drone production offsets losses.
4. Battlefield Economics: Few hundred-dollar drones can destroy million-dollar platforms.
5. Industrial Endurance: Success depends on continuous production and adaptation.
6. Technological Adaptability: Drone systems are rapidly reconfigured for evolving battlefield requirements.

Conclusion

Modern warfare is transitioning from a platform-centric model to a drone-centric ecosystem characterised by low-cost precision, continuous reconnaissance, and rapid innovation. As drones become central to deterrence, power projection, and battlefield operations, military advantage will increasingly depend on the ability to build, deploy, adapt, and neutralise unmanned systems at scale.

Value Addition

Revolution in Military Affairs (RMA)

1. Integration of emerging technologies into warfare.
2. Alters doctrine, force structure, and operational concepts.
3. Comparable to:
   1. Gunpowder Revolution.
   2. Mechanised Warfare.
   3. Nuclear Revolution.
   4. Information Warfare.

Emerging Technologies in Warfare

Artificial Intelligence

1. Autonomous targeting.
2. Swarm coordination.
3. Decision support systems.

Electronic Warfare

1. Jamming.
2. Spoofing.
3. Signal disruption.

Autonomous Systems

1. Loitering munitions.
2. Unmanned combat aerial vehicles.

Network-Centric Warfare

1. Real-time ISR integration.
2. Sensor-to-shooter connectivity.

PYQ Relevance

[UPSC 2023] The use of unmanned aerial vehicles (UAVs) by our adversaries across the borders to ferry arms/ammunitions, drugs, etc., is a serious threat to internal security. Comment on the measures being taken to tackle this threat.

Linkage: The PYQ examines the security implications of the growing use of drone technology. The article discusses how drones have become central to modern warfare, highlighting the need for advanced counter-drone capabilities to address emerging military and internal security threats.