The Ministry of Defence (MoD) is on the verge of clearing the satellite-guided model of the Smart Anti-Airfield Weapon (SAAW).
Created by the Defence Research and Development Organisation's (DRDO) Research Centre Imarat (RCI), this system vastly improves India's capacity to launch precise, long-distance attacks on vital enemy facilities.
Initially sanctioned in 2013, the SAAW represents India's first fully indigenous anti-airfield weapon and marks a major milestone in military self-reliance.
The satellite-navigated SAAW serves as the primary operational version, built specifically to destroy non-moving airfield targets like aircraft hangars, reinforced bunkers, and landing strips.
It ensures a reliable strike capability during any weather condition or time of day, distinguishing it from the upcoming Electro-Optical/Imaging Infrared (EO/IIR) model that focuses heavily on terminal-stage accuracy.
At the core of this technology is a complex navigation architecture that pairs an Inertial Navigation System (INS) with signals from two satellite networks: global GPS and India's own NavIC constellation.
This mixed method guarantees the weapon functions effectively even in areas where electronic warfare might block or weaken foreign satellite connections.
Operating with a margin of error under 7 metres, the SAAW qualifies as a highly accurate munition ideal for surgical strikes.
Following an upgrade in late 2025, the DRDO equipped the weapon with mid-flight satellite correction capabilities. This feature allows the glide bomb to adjust its path in real-time, compensating for wind changes or minor target coordinate shifts before impact.
To prevent mission failure, the weapon features a locally made, highly precise INS backup.
If satellite signals are jammed or temporarily lost, this backup ensures the SAAW stays on its programmed flight path, providing essential reliability in modern, electronically contested battlefields.
The SAAW can be launched from roughly 100 kilometres away, keeping the aircraft safely out of range from most medium-range enemy surface-to-air missiles.
Because the bomb is relatively light at approximately 120 to 125 kilograms and measures about 1.85 metres in length, fighter jets can carry multiple units at once for large-scale saturation attacks.
Armed with an 80-kilogram high-explosive penetration warhead, the weapon is tailored to destroy essential airbase infrastructure.
This capability is vital for counter-air operations, as crippling an enemy's runway drastically reduces their ability to launch aircraft and mount a structured defence.
The weapon is already being fitted onto various aircraft across the fleet.
The Jaguar strike fighter has successfully tested the SAAW and can reportedly carry up to six units.
Meanwhile, the Su-30MKI fighter can transport between 20 and 32 of these bombs using a domestically built Smart Quad Rack, allowing for massive firepower in a single flight.
Work is also progressing to arm the indigenous Tejas Mk1A, Tejas Mk2, and eventually the Dassault Rafale fleets with this precision asset.
In the future, the DRDO aims to introduce a variant equipped with an EO/IIR seeker.
This upcoming model is expected to bring the margin of error down to less than 3 metres right before impact, making it incredibly deadly against heavily fortified or highly important targets.
Furthermore, open-source reports indicate that a turbojet-powered version is under development to transform the glide bomb into a cruise missile, extending its strike range beyond 200 kilometres.
