DRDO Successfully Tests Indigenous Combat Parachute System at 22,000 Feet in Ladakh
DRDO has successfully tested its indigenous Military Combat Parachute System (MCPS) in one of the most demanding environments yet attempted by an Indian military parachute programme, with test jumpers exiting at 22,000 feet above mean sea level and landing safely in sub-zero conditions at the Nyoma-Mudh drop zone in eastern Ladakh.
The trial, conducted on Wednesday in temperatures of minus 15°C, took place near the Line of Control in Leh district and is being seen as an important high-altitude validation of a system meant for special operations and airborne insertion in mountain terrain. The parachute opened at 20,000 feet, and the jumpers touched down at 13,700 feet — the same elevation as the nearby Indian Air Force airbase at Nyoma, one of the highest fighter-capable bases in the world.
According to DRDO, the test demonstrated the system’s “efficacy, reliability and tactical employability” in extreme conditions. The organisation said the trial also reinforced India’s effort to build self-reliance in defence technologies that are operationally critical but difficult to develop for thin air, extreme cold and mountainous terrain.
The jump was carried out by three test jumpers from ADRDE: Wing Commander Rahul Jha, who served as Chief Test Jumper, Master Warrant Officer R. J. Singh, VM(G), and Master Warrant Officer Vivek Tiwari. They used the complete MCPS package, including an indigenous para computer, oxygen system and specialised jumpsuits designed to function in low-oxygen and extreme-cold conditions.
The MCPS has been developed by DRDO’s Aerial Delivery Research and Development Establishment (ADRDE) in Agra, with life-support and physiological systems contributed by the Defence Bioengineering and Electromedical Laboratory (DEBEL) in Bengaluru. The system has been built to meet the needs of combat parachuting in high-altitude operations, where conventional parachutes face serious limitations.
Among its key features are a lower rate of descent to reduce landing shock on high-altitude ground, improved steering that allows jumpers to move towards a designated landing point instead of drifting with the wind, and compatibility with NavIC, India’s regional satellite navigation system. That compatibility is intended to reduce dependence on foreign GPS signals, which can be jammed or denied in a conflict situation.
The system also supports high-altitude high-opening (HAHO) and high-altitude low-opening (HALO) profiles, both widely used in special operations. Combined with the indigenous oxygen, computing and clothing subsystems, these features allow a paratrooper to exit an aircraft at high altitude, open the canopy at a planned height, navigate independently and land on a small, predetermined patch of ground.
That capability is particularly relevant for covert insertion missions over the Himalayas, where troops may need to reach isolated terrain without being detected and where precise landing is essential.
The latest test follows an earlier high-altitude validation of the same parachute system. In October 2025, Indian Air Force test jumpers carried out a combat freefall from 32,000 feet, with canopy deployment at around 30,000 feet. DRDO said that jump made the MCPS the only parachute system then in operational use with the Indian Armed Forces that could be deployed above 25,000 feet.
Wednesday’s exercise added another layer of operational relevance. Unlike the 2025 freefall test, this jump was conducted into a real drop zone in Ladakh, with the landing area itself at 13,700 feet and the ambient temperature at minus 15°C. Those conditions matter because thin air alters canopy performance, reduces lift and changes the way a jumper descends. They also place greater strain on the body and on equipment, especially in mountain regions where navigation mistakes can quickly become dangerous.
Nyoma, where the drop zone is located, has strategic significance beyond the parachute programme. Situated in south-eastern Ladakh near the Line of Control, the area has seen major infrastructure development by the IAF, which has upgraded the former advanced landing ground into a full airbase capable of fighter operations. The same drop zone has already been used for para-dropping troops, vehicles and equipment. Testing the MCPS there connects the parachute system to the broader high-altitude military infrastructure being developed along India’s northern frontier.
High-altitude airborne insertion remains one of the most demanding forms of military movement. Lower air density means canopies generate less lift, freezing temperatures can affect equipment and reduce dexterity, and the lack of oxygen places additional stress on parachutists. In such an environment, a parachute that performs well in a conventional test range still has to prove itself in the kind of conditions troops would actually face in the mountains.
For India, the MCPS is also part of a wider search for indigenous capability in a niche but important field. The source article notes that the country has for years relied on a mix of imported and older domestic parachute systems with more limited high-altitude performance. The new system is intended to give special forces and airborne units an Indian alternative for HALO and HAHO missions, without dependence on foreign navigation or canopy technology.
The successful Ladakh jump does not in itself mean the system is ready for full-scale induction. Further steps would still be needed, including production at scale, training pipelines, maintenance procedures and more operational jumps with combat loads. But the trial does show that the hardware and its supporting life-support systems can work in the kind of environment where Indian troops may actually need to deploy — over the high ridges and open terrain of eastern Ladakh.
DRDO described the result as another advance under Aatmanirbhar Bharat in a field where reliability can be a matter of operational survival. The challenge the MCPS is designed to meet is straightforward but difficult: getting soldiers onto the ground, intact and on target, from altitudes where most parachute systems are not certified to operate.
