Showing posts with label Private. Show all posts
Showing posts with label Private. Show all posts

Saturday, November 14, 2026

India's Drones Are No Longer Taking Off, They Are Taking Over

India's drone sector is racing ahead, from farms to the front line

India's drone sector has moved from experiment to infrastructure. The change is visible in farms, in village land records, on highways, on railway lines, and in defence planning. By February 2026, India had more than 38,500 registered drones. It had 39,890 certified remote pilots.

It had 244 approved training organisations. Those figures describe a regulated ecosystem, not a hobby market. Revenue tells the same story of acceleration. Sector revenue rose from ₹ 60 crore in 2021 to ₹ 4,000 crore in 2025. That is a 66-fold rise in four years.

The commercial market was put at $1.88 billion, or ₹ 17,000 crore, in FY26. It was expected to grow at a compounded 17.98 per cent rate during FY25 to FY29. Globally, the United States leads the commercial drone industry, followed by China, with India ranked seventh. Policy made much of this possible. The Drone Rules, 2021, cut forms from 25 to 5.

They cut approval requirements from 72 to just 4. Fees were rationalised and delinked from drone size. Civilian operations were permitted for drones weighing up to 500 kg. Nearly 90 per cent of Indian airspace was declared a Green Zone for flights up to 400 feet. A Remote Pilot Certificate replaced the older pilot licence requirement.

The Production Linked Incentive program for drones and drone components carried an approved outlay of ₹ 120 crore. It aimed to promote high-value domestic manufacturing. It helped Indian Start-Ups and MSMEs scale production capacity. An import ban on completely built drone units channelled demand toward domestic makers. In September 2025, GST on drones was reduced to a uniform 5 per cent. Earlier rates of 18 per cent and 28 per cent were removed.

Smit Shah, President of the Drone Federation of India, summed up the policy mix in plain terms. 'The biggest game changer was the combination of the Drone Policy of 2021, the PLI scheme and the import ban, all centred around the Make in India vision,' he said.

He added: 'Because of initiatives like Make in India, the entire drone ecosystem of the country today exists.' Agriculture has become the dominant civilian use. About 70 per cent of the 122 Type Certificate holders had certification for agricultural drones, mainly for spraying.

Another 24 per cent operated in surveillance and mapping. Drones can cut agrochemical spraying costs by nearly 80 per cent compared with manual spraying. They can cover 6 to 6.6 acres in the time manual labour covers one acre. After efficiency and depreciation, drones were found to be over 78 per cent more cost effective than manual labour. The Namo Drone Didi program, launched in November 2023, gives drones to Women Self Help Groups.

It aims to improve farm efficiency, raise crop productivity, reduce input costs, and create sustainable livelihoods. By February 2026, 1,094 drones had been distributed to women SHGs, including over 500 under Namo Drone Didi. The program has an allocation of ₹ 1,261 crore through 2026. It aims to provide 15,000 women SHGs with drones for farm-related rental services. A Drone Didi from Sitapur, Uttar Pradesh, featured in the 110th episode of Mann Ki Baat, showed how training enabled her SHG to offer spraying services to farmers. That work raised income and social empowerment.

Governance at scale has given the sector anchor demand. Under the SVAMITVA program, drone surveys were completed in 3.28 lakh villages by December 2025. That was about 95 per cent of the overall target of nearly 3.44 lakh villages. By December 2025, 2.76 crore property cards had been prepared for 1.82 lakh villages across 31 states and Union Territories. Clear drone-mapped records reduce land disputes. They also improve access to bank credit.

The National Highways Authority of India mandates monthly drone-video recordings for all highway projects. Contractors upload current and prior-month footage for comparison. Supervision consultants analyse the recordings in digital monthly progress reports. The footage also serves as a permanent record in dispute resolution. The Ministry of Railways has directed zones and divisions to deploy drones for monitoring tracks, bridges, and infrastructure. The Railway Protection Force uses drones for security surveillance in rail yards, station premises, and along tracks.

Drones support crowd management and anti-trespass operations. In disaster management, drones send live visuals from affected areas. That helps rescue teams understand floods, landslides, and other disasters quickly. Defence has become a powerful driver. Drones help the armed forces watch borders, gather intelligence, and carry out precise strikes. During Operation Sindoor, Indian drones and loitering munitions destroyed enemy targets safely and accurately.

The operation in May 2025 saw large-scale tri-service deployment of drones and missiles for precision strikes. The Armed Forces also neutralised hundreds of enemy drones and missiles through an integrated air defence shield.

The Ministry of Defence later said: 'Loitering munitions were used to devastating effect, each finding and destroying high-value targets, including enemy radar and missile systems.' It added: 'The use of modern indigenous technology, from long-range drones to guided munitions, made these strikes highly effective and politically calibrated.' The Army has since released a Technology Roadmap for Unmanned Aerial Systems and Loitering Munitions. It identifies 30 types of UAS and loitering munitions covering 80 variants across five categories.

Those categories are surveillance, strike, air defence, special roles, and logistics. The Army plans to induct thousands of drones over the next few years. Drone training centres have been established at 19 key training establishments. Over 50,000 personnel have been trained in drone operations under the Army Training Command's Drone Training Infrastructure. The Army's vision is that every soldier will be trained in drone operation by 2027. Indian companies now span the full chain.

ideaForge focuses on defence, surveillance, and mapping drones. Garuda Aerospace builds Kisan agricultural drones and border systems. Raphe mPhibr, NewSpace, Zuppa, Dhaksha, Big Bang Boom Solutions, and Indrajaal work across military drones, swarms, autopilots, farm systems, and counter-drone systems. Airbound, Skye Air, and TechEagle focus on delivery. Aereo focuses on mapping. Drone Destination and DroneAcharya focus on training, services, and analytics.

Paras Defence works on defence optics and counter-drone technology. Large firms such as L and T, BEL, and HAL also have drone exposure. Funding, however, has been uneven. Military and defence drone Start-Ups raised $159.2 million in equity funding in 2025. That was a 343.1 per cent year-on-year rise. In 2026, up to 5 October, they had raised just $4.39 million.

That was 97.2 per cent less than in all of 2025. One founder said the fall partly reflected companies still absorbing large sums raised the previous year. Dual-use Start-Ups held up better, raising $48.2 million in the same 2026 period. India still has the world's second-largest pool of defence-tech companies, with 416 firms. Only about one in four has raised funding. The deepest risk is component dependence.

Smit Shah warned: 'The dependence on foreign-made motors, batteries, flight controllers, communication systems and rare earth magnets leaves the sector vulnerable to supply disruptions and export restrictions.' He added: 'We have built a strong assembly base, and more than 160 drone models now hold type certificates.

But a drone is only as Indian as the parts inside it, and most flight-critical parts are still imported.' He also warned: 'Any single source for a flight-critical part is a risk, because supply can be cut overnight.' China accounts for about 94 per cent of global permanent magnet production. China tightened export controls on drone-related technologies in stages. Restrictions covered certain drone components in September 2024 and rare earth magnets in April 2025.

Wider controls on autopilots, radios, motors, and speed controllers were set to follow from 18 November. At the Bharat Drone Stack Conference 2026, held on 12 and 13 November in Bangalore, the Army and Air Force pressed manufacturers to build critical components at home. The conference brought together more than 80 Indian component manufacturers, policymakers, defence representatives, and technology developers.

The Drone Federation of India was expected to release a policy paper, Making the Swadeshi Switch, with 22 recommendations. Its proposals included Indian-content requirements in drone type certification. They included a clear definition of a drone kit, to stop imported assemblies being passed off as domestically made.

They included gradually increasing import duties where Indian alternatives exist. Civil demand also needs stronger support. Certification for beyond visual line-of-sight operations is essential. A functional unmanned traffic management system is essential too. Shah said: 'Civil demand is important because it provides the volume that makes a component maker's business viable beyond defence orders.' The outlook remains strong, but execution will decide it. Shah projected a ₹ 19,000 crore to ₹ 20,000 crore industry in the coming years.

The Drone Federation of India estimated the industry could grow from ₹ 5,720 crore at present to around ₹ 97,300 crore by 2030-31. The domestic drone component market alone was targeted at $3.08 billion. The sector is expected to generate over 1,20,000 jobs in manufacturing. It is expected to generate more than 6,00,000 positions in services. That is over 7.2 lakh jobs in total.

India's drone story is therefore not only about defence or delivery. It is about a village woman becoming a certified pilot, spraying her neighbours' fields, and earning an income. It is about clear property records, safer railways, faster disaster response, and sharper border awareness.

The next test is clear. India must move from assembly to full-stack indigenous manufacturing, from imported flight-critical parts to a resilient domestic supply chain, and from pilot projects to dependable volume.

If it does, the sector that moved so fast will also endure.

IDN (With Agency Inputs)


SFO Technologies And Cochin Shipyard Jointly Develops India’s First Indigenous Hybrid Laser Arc Welding Technology


India has taken a significant step forward in advanced manufacturing with the unveiling of the country’s first indigenously designed and manufactured Hybrid Laser Arc Welding (HLAW) technology, announced Cochin Shipyard.

The breakthrough has been jointly developed by SFO Technologies Pvt. Ltd., the flagship company of NeST Group, and Cochin Shipyard Limited (CSL).

The announcement was made on 11 November 2026 during the inauguration of the Advanced Laser Engineering Centre and Hybrid Laser Arc Welding R&D Facility at NeST Hitek Park in Kalamassery, Kochi. The facility was inaugurated by Jose V. J., Chairman and Managing Director of CSL, and Dr N. Jehangir, Chairman and Managing Director of SFO Technologies.

The newly developed HLAW system combines laser welding, conventional arc welding, robotics and advanced automation into a single integrated platform. A key feature of the system is its high-power fibre laser source, which has been indigenously developed by SFO Technologies, marking an important achievement in domestic industrial technology development.

The technology is expected to deliver substantially faster welding speeds, deeper weld penetration, reduced material distortion and greater weld consistency. These advantages could improve productivity and manufacturing efficiency across a broad range of sectors, including shipbuilding, defence, heavy engineering, railways, energy and other strategic industries involved in the fabrication of large tanks, wagons and complex industrial structures.

The development is particularly noteworthy for India’s shipbuilding sector, where welding represents a critical component of vessel construction. By enhancing manufacturing repeatability, structural quality and production efficiency, the system has the potential to strengthen the competitiveness of Indian shipyards and industrial manufacturers.

The project also represents a major contribution to the country’s efforts to reduce dependence on imported laser welding platforms and establish stronger indigenous capabilities in advanced manufacturing technologies. It aligns closely with the broader objective of increasing technological self-reliance in strategically important industrial sectors.

“This is a proud moment not only for SFO Technologies but for Indian manufacturing. By developing the high-power fiber laser source in-house and integrating it with advanced welding, robotics and automation, we have demonstrated that high-end manufacturing technologies can be conceived, engineered and built in India,” said Dr N. Jehangir.

Highlighting the importance of the collaboration, Jose V. J. said that the partnership demonstrated how engineering innovation could be applied to address practical industrial requirements. “Cochin Shipyard’s collaboration with SFO Technologies has enabled the joint development of a technology that is relevant to shipbuilding and other manufacturing industries. The Indigenous Hybrid Laser Arc Welding has the potential to improve productivity, quality and competitiveness across Indian manufacturing,” he said.

The Advanced Laser Engineering Centre will serve as a hub for research, testing, validation and commercialisation of advanced laser technologies. Beyond supporting industrial adoption, the facility is expected to contribute to the objectives of Atmanirbhar Bharat while helping position Kochi as an emerging centre for high-end industrial innovation and advanced manufacturing in India.

The introduction of indigenous HLAW technology comes at a time when nations are increasingly seeking domestic control over critical manufacturing capabilities. Advanced hybrid welding systems are considered essential for next-generation shipbuilding, defence production and heavy engineering projects because they combine precision, speed and automation while reducing production costs and improving product quality.

How Drones Are Countered - India's Indigenous Anti-Drone And Directed-Energy Systems


To counter low-cost kamikaze drones and high-speed jet loitering munitions without exhausting expensive surface-to-air missiles, India has built a multi-layered Counter-Unmanned Aerial System (C-UAS) shield combining directed-energy weapons, kinetic micro-missiles, and AI-driven electronic warfare.

1. Directed-Energy Weapons (High-Energy Lasers)

High-energy lasers engage incoming drones at the speed of light for a fraction of the cost of a conventional missile, offering near-unlimited magazine depth as long as power is available.

• DRDO MK-II(A) Laser-DEW (Sahastra Shakti): Developed by DRDO's Centre for High Energy Systems and Sciences (CHESS), this vehicle-mounted 30-kilowatt laser system destroys fixed-wing UAVs, drone swarms, and enemy surveillance sensors at ranges of up to 5 km. Following successful trials in Kurnool, DRDO initiated industry partner selection to transition the system into production.

• Airborne & Heavy Laser Programs: DRDO is developing an 180 kg helicopter-borne laser pod for the HAL Dhruv and Rudra (with a 2 km engagement beam), alongside higher-power ground systems like the 100 kW Project DURGA-II and the 300 kW Surya system (targeting a 20 km range).

• High-Power Microwave (HPM) Weapons: Both DRDO and private firms like Tonbo Imaging (Wave Strike HPM) are developing microwave-based systems capable of frying the internal electronics of entire drone swarms simultaneously.

2. Hard-Kill Kinetic Counter-Swarm Systems

Because modern loitering munitions (such as the Nagastra-2 and Agniveg) feature Electronic Counter-Countermeasures (ECCM) to resist GPS and radio jamming, physical "hard-kill" interceptors are essential.

• Bhargavastra: Designed by Solar Defence and Aerospace Limited (SDAL), this mobile hard-kill system detects small drones up to 6–10 km away and fires 64 micro-rockets and guided micro-missiles in a 10-second salvo. Layer 1 uses unguided micro-rockets to wipe out drone swarms within a 20-meter blast radius at up to 2.5 km, while Layer 2 uses precision-guided micro-missiles against evasive targets.

• Integrated Air Defence Weapon System (IADWS): Successfully tested by DRDO off the Odisha coast, this unified command network links Quick Reaction Surface-to-Air Missiles (QRSAM), Very Short Range Air Defence Systems (VSHORADS), and high-power laser DEWs to engage fast fixed-wing drones and multi-copters simultaneously.

3. Soft-Kill Electronic Warfare & Wide-Area Shields

For border security, naval bases, and urban infrastructure, India deploys networked electronic warfare grids that sever command links or hijack navigation.


IDN (With Agency Inputs)


Soft-Kill RF Jamming & GNSS Spoofing Vs Hard-Kill Laser DEWs: The Modern Counter-Drone Showdown


Modern counter-drone defence architectures rely on a multi-layered approach to neutralise unmanned aerial vehicles (UAVs) before they breach critical airspace. This strategy hinges on a balance between soft-kill countermeasures, which disrupt or manipulate a drone without physical destruction, and hard-kill options, which physically annihilate the threat.

Soft-Kill Mechanisms: RF Jamming And GNSS Spoofing

Soft-kill solutions are non-kinetic countermeasures designed to neutralise hostile drones by attacking their electronic nervous system—specifically their communication links and navigation feeds.

RF Communication-Link Jamming: This method floods the target drone's operating frequencies with high-power electromagnetic noise. By overpowering the command and control (C2) signals sent by the human operator, the jamming cuts off the link, triggering the drone's built-in fail-safe program—typically forcing it to land safely or return to its launch point.

GNSS and GPS Spoofing: More sophisticated than raw jamming, spoofing transmits counterfeit satellite navigation signals that mimic genuine Global Navigation Satellite System transmissions. By subtly altering the timing and positioning data fed to the drone's flight controller, the system tricks the UAV into believing it is located elsewhere, steering it off course, trapping it in a geo-fenced virtual barrier, or forcing a controlled descent.

Advantages & Limitations: Soft-kill methods generate zero kinetic debris, making them ideal for urban areas or sensitive military installations where collateral damage must be strictly avoided. However, they are largely ineffective against fully autonomous drones programmed to navigate via pre-loaded waypoint files or onboard optical guidance systems that do not rely on external radio or satellite links.

Hard-Kill Mechanisms: Laser Directed Energy Weapons (DEW)

When electronic countermeasures fail or when facing autonomous swarm attacks, systems transition to hard-kill options, with Laser Directed Energy Weapons representing the pinnacle of modern kinetic-alternative defence.

Thermal Destruction & Beam Control: A high-energy laser beam focuses an intense concentration of photons onto a microscopic spot on the target drone. Within seconds, the concentrated thermal energy burns through critical composite structures, melts control surfaces, destabilises aerodynamic stability, or blinds onboard electro-optical sensors, causing immediate catastrophic failure.

Advantages & Limitations: Laser DEWs operate at the speed of light, ensuring near-instantaneous target engagement with zero bullet drop or travel time. They offer an infinite magazine limited only by electrical power supply and feature an exceptionally low cost per engagement compared to conventional missile interceptors. Conversely, their performance can be degraded by adverse atmospheric conditions such as heavy fog, dust, smoke, or rain, and they demand extreme tracking precision to maintain a focused beam on a fast-moving target.

Synergy In Modern Defence Architecture

Rather than competing, soft-kill and hard-kill systems operate in tandem within an integrated command and control framework. A layered platform like the Drishti D4 first deploys soft-kill RF jamming and spoofing as a primary, cost-effective deterrent. If the threat proves resilient or autonomous, the system seamlessly escalates to hard-kill laser directed energy weapons to guarantee mission success.

Comparative Overview



Astrobase Commits ₹800 Crore To Expand 'Reusable' Rocket-Testing Site In Andhra Pradesh


Astrobase Space Technologies, a Bangalore-based space Start-Up, has announced a major investment of ₹800 crore to substantially expand its rocket-testing infrastructure in Andhra Pradesh.

The company formalised this commitment by signing a memorandum of understanding with the Andhra Pradesh Economic Development Board on November 12, 2026.

This agreement was executed during the 31st CII Partnership Summit held in Visakhapatnam, with Andhra Pradesh Industries Minister TG Bharath and Chief Minister N. Chandrababu Naidu present at the signing. Under the expansion plan, Astrobase will acquire an additional 339 acres of land adjacent to its existing site at Thimmasamudram in the Sri Sathya Sai district.

Adding this land will expand the total footprint of the facility to approximately 360 acres, creating one of the largest private rocket-testing hubs in the region.

The ₹800-crore capital outlay is designed to support a comprehensive suite of launch-vehicle development, ground testing, and validation operations.

Planned infrastructure upgrades include specialised test stands for static hot-fire trials of rocket engines and full-scale development and testing of integrated rocket stages.

Crucially, the expanded grounds will facilitate stage-level 'hop' tests and broader validation work specifically tailored for next-generation reusable launch-vehicle systems.

Hop tests require a rocket stage to perform a controlled vertical lift-off, hover or translate briefly, and execute a precision landing, enabling engineers to scrutinise propulsion performance and recovery mechanisms before attempting high-altitude orbital flights.

Astrobase chief executive and co-founder Neeraj Khandelwal noted that the larger site would enable critical testing programs and help accelerate reusable launch-vehicle development.

He added that the expansion marks a significant milestone in the company's journey to build advanced space transportation capabilities from India, stating, "The next frontier is to translate this strength into the ability to transport payloads to space more frequently, reliably and at scale."

Beyond technological advancement, the project is projected to generate substantial regional employment, creating roughly 500 direct jobs alongside 1,000 indirect employment opportunities. This major expansion builds upon Astrobase's existing operational footprint in the Anantapur region, which the firm characterises as a private high-thrust engine-test site.

According to company specifications, the current site spans roughly 21 to 22 acres and is engineered to handle thrust outputs reaching hundreds of tons alongside extreme exhaust temperatures exceeding 3,000°C.

Maintaining dedicated, in-house testing infrastructure provides the Start-Up with complete autonomy over its testing schedules, allowing for rapid hardware iteration without external bottlenecks. At the core of Astrobase's propulsion roadmap is the indigenous Everest engine, a liquid-oxygen-and-methane powerplant utilising advanced full-flow staged-combustion technology.

Full-flow staged combustion is a highly efficient, closed-cycle engine architecture pursued by only a select few aerospace entities globally, making Everest India's first private engine of this class.

Astrobase classifies Everest as an 800-kilonewton-class engine, noting that its clean-burning methalox propellant combination is specifically chosen to minimise coking and support rapid rocket reusability. The firm's proposed two-stage launch vehicle architecture is tailored for medium- and heavy-lift orbital missions, capable of carrying payloads ranging between 8 and 26 tons.

In this planned vehicle configuration, four Everest engines will power the reusable booster stage, while a single engine will propel the upper stage. However, industry observers note that these figures represent active engineering development plans and design specifications rather than a currently operational launch system.

The Andhra Pradesh announcement closely follows Astrobase's separate proposal to invest ₹500 crore in neighbouring Karnataka to establish a dedicated manufacturing unit in Bangalore.

Planned on a 10-acre plot at the Adinarayana Hosahalli Phase II Special Economic Zone, the Bangalore facility is projected to produce up to 40 rocket engines annually and generate over 1,250 jobs.

This Karnataka manufacturing hub will house advanced additive manufacturing systems, precision fabrication units, non-destructive testing bays, quality-control infrastructure, and assembly lines for both engines and complete rocket stages.

Together, the Bangalore manufacturing plant and the Thimmasamudram testing complex are built to drive the parallel development of the Everest engine and the AB220 medium-lift launch-vehicle program.

Viewed alongside one another, these twin investments illustrate an end-to-end industrial strategy integrating design, component fabrication, propulsion assembly, and full-scale ground testing.

For any emerging orbital launch provider, robust ground-testing infrastructure is indispensable, as individual engines, structural stages, and integrated avionics must endure repeated, rigorous trials before being certified for flight.

While the expanded Andhra Pradesh complex will afford Astrobase the physical space and safety buffer required for complex propulsion and recovery trials, the company has not yet disclosed a formal construction timeline or operational target dates for each new test stand.

Astrobase's ambitious capital commitments underscore the rapidly expanding role of private enterprise within India's modernised space ecosystem.

Backed by a leadership team that includes former Indian Space Research Organisation scientists, the company is capitalising on structural reforms initiated when the Indian government opened the space sector to private participation in 2020.

This regulatory environment was further codified through the Indian Space Policy 2023, which established a clear framework for non-government entities to engage across the entire value chain of space activities.

Within this framework, the Indian National Space Promotion and Authorisation Centre, known as IN-SPACe, acts as the single-window nodal agency responsible for authorising, regulating, and promoting private-sector access to space infrastructure.

Looking toward the long term, Astrobase has articulated an ambitious corporate target to build the capacity to transport 1,000 tons of payload to orbit annually from Indian soil by 2040, with an interim milestone of 100 tons by 2032.

While that 1,000-ton figure remains an aspirational long-term target rather than existing launch capacity, the Andhra Pradesh test facility expansion lays vital physical groundwork toward achieving frequent, economical access to space.

Ultimately, whether this ₹800-crore infrastructure investment translates into reliable, repeatable commercial launches will hinge on sustained engineering execution, timely regulatory clearances, continued capital financing, and successful flight demonstrations.

Agencies


IG Defence Plans 200-Acre Indigenous Missile Complex In Andhra Pradesh With Focus On Micro-Missile Technology


In a major step towards bolstering India's strategic defence architecture and domestic aerospace manufacturing, IG Defence has signed a memorandum of understanding with the Government of Andhra Pradesh to establish a sprawling 200-acre Missile Development and Manufacturing Complex.

The agreement was formalised in Visakhapatnam in the presence of Andhra Pradesh IT Minister Nara Lokesh and Union Minister of Civil Aviation Kinjarapu Ram Mohan Naidu, signalling strong state and central backing for private-sector defence innovation.

Planned for Nellore, the proposed complex is envisioned not merely as a conventional production factory, but as an integrated defence technology and industrial ecosystem dedicated to indigenous missile development, micro-missile technologies, propulsion systems, precision-strike capabilities, and advanced defence manufacturing.

The strategic timing of this investment reflects the changing realities of modern warfare, where recent conflicts—particularly across West Asia—have demonstrated the staggering rate at which missiles, precision-guided munitions, interceptors, and unmanned aerial systems are consumed on the battlefield.

Global supply chain strains and concerns over international munitions inventories have underscored a vital lesson for military planners: modern deterrence relies as much on magazine depth, ammunition availability, and the industrial capacity to replenish stockpiles at scale as it does on technological sophistication.

For India, achieving genuine strategic autonomy requires moving beyond importing or assembling foreign hardware to establishing sovereign design, intellectual property ownership, resilient domestic supply chains, and rapid surge-production capabilities.

At the heart of IG Defence's technological roadmap for the Nellore facility is JWALA, the company's indigenous next-generation micro-missile program designed specifically for precision engagement and counter-unmanned aerial systems.

As contemporary battlefields become increasingly saturated with low-cost drones, loitering munitions, and autonomous aerial swarms, militaries face an urgent need for scalable, cost-conscious, and agile interceptor solutions rather than relying solely on expensive legacy air-defence missiles.

The JWALA micro-missile program has already crossed a critical engineering milestone, having successfully test-fired its indigenous solid rocket motors, validating the start-up's foundational propulsion capabilities ahead of full-scale industrial expansion.

Supporting the physical manufacturing of these systems will be GRID Forge, IG Defence's proprietary software-defined manufacturing ecosystem that will serve as the digital backbone of the Nellore complex.

Designed to transcend traditional factory operations, GRID Forge digitally integrates production infrastructure, engineering workflows, quality assurance systems, and real-time operational coordination into a unified architecture.

By embedding end-to-end production traceability, process standardisation, and intelligent manufacturing visibility into the facility, GRID Forge is engineered to make defence production highly scalable, verifiable, and replicable across future industrial clusters.

The establishment of the Nellore complex also marks a significant expansion of Andhra Pradesh's rapidly growing aerospace and defence corridor, complementing existing strategic clusters across the state.

While Visakhapatnam anchors naval systems and Kurnool-Orvakal is emerging as a hub for unmanned systems, ammunition, and missiles, the new 200-acre facility in Nellore will bridge critical gaps in propulsion and precision-strike supply chains.

Under the terms of the memorandum of understanding, the Andhra Pradesh Economic Development Board will actively facilitate the investment process, coordinating across government departments to streamline project development, regulatory approvals, and statutory clearances.

Highlighting the strategic philosophy driving the expansion, Bodhisattwa Sanghapriya, Founder and CEO of IG Defence, emphasised that industrial agility is now inseparable from national security.

"Modern warfare is no longer defined by technology alone. It is equally defined by how quickly a nation can manufacture, deploy and replenish its defence capabilities. Recent global conflicts have reinforced a critical lesson: military strength depends not just on advanced capabilities, but also on munitions depth and the ability to replenish them at scale. India must build resilient domestic supply chains and independently develop and manufacture technologies vital to its national security," Sanghapriya stated.

Expanding on the synergy between indigenous hardware and software-defined production, Sanghapriya noted that the company's vision extends far beyond building standalone weaponry.

"At IG Defence, our ambition goes beyond individual products. We aim to build indigenous technologies, intellectual property and manufacturing infrastructure for the weapons systems of tomorrow.

JWALA embodies our commitment to indigenous missile technology, while GRID Forge represents our vision for software-defined defence manufacturing. Together, they will form the foundation of a next-generation manufacturing ecosystem.

Our partnership with the Government of Andhra Pradesh is an important step towards realising this vision. India must move beyond being a buyer or assembler of defence technologies to becoming their developer, owner and manufacturer," he added.

Operating under the guiding motto 'For the Nation, With Precision', IG Defence's Nellore initiative aligns directly with the Government of India's flagship Aatmanirbhar Bharat and Make in India mandates, positioning the nation to evolve into a globally competitive hub for next-generation defence engineering and scalable munitions manufacturing.

Agencies


Friday, November 13, 2026

Indian Defence Forces Begin Specialised Training On Indigenous ALAKH Kamikaze Drones


Indian defence personnel have commenced specialised training on the domestically developed ALAKH Kamikaze Unmanned Aerial Vehicle (UAV), following its official delivery to the armed forces by Noida-based EndureAir Systems.

Engineered specifically to endure and operate within contested Electronic Warfare (EW) environments, the ALAKH functions as a first-person-view (FPV) loitering munition. It employs a targeted Search, Detect and Destroy (SDD) operational methodology to neutralise threats effectively on the modern battlefield.

The intensive training program focuses on equipping operators with comprehensive platform familiarisation to understand the system's full capabilities. Personnel are also being drilled in strict operational procedures and overall mission readiness to ensure seamless deployment in active combat scenarios.

This induction forms part of a wider, accelerated push towards indigenous unmanned aerial systems across India's military. Alongside the ALAKH deployment, the Indian Army has bolstered its tactical strike capabilities by taking delivery of 450 Nagastra-1R loitering munitions, expanding its total inventory of the platform to 930 units.

Furthermore, the armed forces are actively expanding their technological edge by conducting field trials on advanced, jet-powered drone variants, including the Agniveg and KAL systems.

India's indigenous drone arsenal has rapidly expanded across tactical electric loitering munitions and high-speed, jet-powered deep-strike systems.

Tactical Electric Loitering Munitions

These platforms are designed for infantry and forward mountain units to execute low-altitude, low-acoustic-signature precision strikes.


Jet-Powered Kamikaze Drone Programs

To compress enemy air-defence reaction windows and strike deep-rear targets, India is transitioning from slow propeller drones to turbojet-powered systems capable of speeds up to 450 km/h.

Peacekeeper (Agniveg): Developed by SMPP, the Indian Army has already inducted 106 units (100 operational, 6 training). It reaches speeds of 450 km/h, carries an operational range of 180 km, and achieves <5 m precision while resisting GPS jamming and spoofing.

Jet Based Kamikaze Drone System (JBKDS): Under a ₹2,000 crore Fast Track Procurement program, the Indian Army is running field trials at Pokhran to acquire 540 indigenous jet-powered kamikaze drones. Eleven Indian contenders qualified for trials—including Bharat Forge, Adani Defence, SMPP, Tonbo, and Apollo Micro Systems—to deliver complete packages with transport and mission-control vehicles.

Long-Range & Heavy Jet Platforms: Several high-payload systems are in active development or showcased for strategic deep strikes:

Sureshastra MK-1: Cruises at 350–400 km/h with a range exceeding 500 km, a 30–40 kg warhead, and swarm coordination for over 20 drones simultaneously.

Divyastra MK-3: A turbojet platform designed for a 300–500 km range at 250–300 km/h, carrying a 15–20 kg warhead.

KAL & Sheshnaag-150: Next-generation long-range kamikaze platforms designed for scalable precision strikes without onboard pilots.

Indigenous Engine Backbone: To eliminate reliance on foreign propulsion, DRDO's Gas Turbine Research Establishment (GTRE)—working alongside domestic private partners like Azad Engineering—has developed a 350 kg-class expendable turbojet engine specifically tailored for cruise missiles and jet-powered loitering munitions.

Agencies


Astra Microwave Delivers Vital Active Antenna Array Unit For The Virupaksha Radar Program


Astra Microwave Products Limited has successfully delivered the Active Antenna Array Unit for the newly developed Virupaksha radar prototype.

This vital hardware component acts as the technological heart of the cutting-edge Gallium Nitride based Active Electronically Scanned Array radar system.

The sophisticated unit houses roughly 2,400 Transmit and Receive modules designed to deliver enhanced operational efficiency and high signal output.

The Virupaksha radar has been engineered specifically to replace the ageing Russian origin N011M Bars radar currently fitted on the Indian Air Force fleet.

This major replacement forms a central part of the extensive Super Sukhoi modernisation program aimed at boosting combat capabilities.

Development and initial design work for the radar system are spearheaded by authorities based in Bangalore under domestic defence initiatives.

At present, software integration for the newly delivered Active Antenna Array Unit prototype is actively underway alongside relevant defence research teams.

Once all software integration and subsequent trials conclude successfully, the full radar system will be fully ready for fleet-wide integration.

This milestone marks a significant step forward for domestic defence manufacturing and highlights the growing role of private industry players in strategic projects.

Agencies



Astra Microwave Hands Over Indigenous D4 Counter-Drone Radar To DRDO For Final Integration And Testing


Astra Microwave Products Limited has reached a significant milestone in India's self-reliance journey by delivering its proprietary Drishti-D4 counter-drone radar system to the Defence Research and Development Organisation (DRDO) for final integration and user trials.

This handover marks a pivotal strategic transformation for the Hyderabad-based firm, moving it decisively away from its traditional role as a sub-system component supplier toward becoming an intellectual property-owned, full-system solutions provider.

Modern aerial warfare has been fundamentally reshaped by the proliferation of low-cost, agile unmanned aerial vehicles, creating an urgent operational requirement for robust anti-drone defences across sensitive military installations and critical national infrastructure.

To counter these evolving asymmetric threats, the indigenous D4 system is engineered around a multi-layered, comprehensive architecture designed to detect, track, classify, and neutralise hostile drones in real time.

At the core of its detection capability is an advanced 360-degree radar array that maintains continuous omnidirectional surveillance, eliminating blind spots against erratic flight paths and swarm tactics.

Once a potential aerial target is acquired by the primary radar, the system seamlessly cues an integrated electro-optical and infrared (EO/IR) sensor suite paired with a laser rangefinder (LRF) to provide precise visual identification, day-and-night tracking, and accurate distance measurement.

All sensor inputs and tracking data converge at a centralised command, control, and communications (C3) centre, which synthesises the tactical picture and enables operators to execute rapid, automated, or manual engagement decisions.

In terms of operational reach, the Drishti D4 radar demonstrates high sensitivity against targets with minimal radar cross-sections, capable of detecting micro drones at distances of up to 4 kilometres and smaller nano drones at ranges of up to 2 kilometres.

When a threat is confirmed, the platform offers a graduated response mechanism beginning with a sophisticated soft-kill suite that disrupts hostile unmanned aircraft without causing collateral physical damage.

This non-kinetic countermeasure employs targeted radio frequency (RF) communication-link jamming to sever the connection between the drone and its remote operator, alongside Global Navigation Satellite System (GNSS) and GPS spoofing to disorient the aircraft's onboard navigation and force it off course or into a controlled landing.

For high-threat scenarios where electronic countermeasures are insufficient or autonomous drones operate without active radio links, the system incorporates a formidable hard-kill option in the form of an integrated Laser Directed Energy Weapon (DEW).

This directed energy capability delivers pinpoint thermal destruction against incoming aerial targets at the speed of light, offering a deep magazine and an exceptionally low cost per engagement compared to conventional kinetic interceptors.

Designed for maximum tactical flexibility across diverse terrains, the D4 counter-drone architecture supports dual deployment configurations, allowing forces to mount the unit on static tripods for perimeter defence of airbases and strategic assets, or integrate it onto mobile vehicles to protect moving convoys and forward deployed troops.

Industry analysts project that the domestic market for counter-unmanned aerial systems in India represents a substantial commercial opportunity valued between ₹3,000 crore and ₹5,000 crore over the next five years, driven by accelerated procurement across the armed forces, paramilitary units, and homeland security agencies.

By successfully developing and delivering a complete, indigenous anti-drone ecosystem, Astra Microwave positions itself at the forefront of this rapidly expanding defence sector, reducing dependence on foreign imports while bolstering national airspace security.

Agencies


Hindustan Shipyard And Cyient DLM Sign A Deal To Develop Indigenous Naval Electronics


While Indian shipyards have accelerated warship construction in recent years, much of the sophisticated electronic hardware inside those vessels remains imported. A new partnership aims to bridge that gap with domestically built systems, NDTV reported.

Miniratna Defence Public Sector Undertaking Hindustan Shipyard Limited (HSL), based in Visakhapatnam, has signed a Memorandum of Understanding (MoU) with aerospace and defence electronics specialist Cyient DLM. The two firms will form a joint venture in India to design and manufacture advanced naval ship electronics.

Their collaboration focuses on critical equipment used by Indian Navy warships for navigation, communication, horizon scanning, and coordinated fleet operations. Under the agreement, the partners will jointly develop navigation and solid-state radars, Electronic Chart Display and Information Systems (ECDIS), autopilots, the Global Maritime Distress and Safety System (GMDSS), Fleet Broadband, and Voyage Data Recorders, alongside weather reporting gear and helicopter landing aids.

Beyond national pride, the companies emphasised practical operational benefits. Integrating more domestic content into HSL vessels will curb reliance on overseas suppliers, accelerate procurement timelines, strengthen local supply chains, reduce life-cycle expenses, and streamline maintenance and refit schedules.

The initiative is also expected to generate fresh demand for Indian micro, small and medium enterprises (MSMEs) and deep-tech start-ups supplying maritime and defence components.

HSL Chairman and Managing Director R Adm C Raghuram (Retd) noted that every vessel leaving the yard carries the pride of the nation, and this pact ensures those ships also feature homegrown capabilities. "This MoU will also equip her with Indian intelligence in her radars, Indian precision in her navigational aids, and an Indian voice in her radios. This is Aatmanirbhar Bharat, moving ahead with determination," he stated.

Rajendra Velagapudi, Managing Director and CEO of Cyient DLM, added that the alliance will help India expand its technological and manufacturing base across the maritime and defence sectors.

The rollout follows a clear roadmap. Both organisations will first select top-priority systems and assemble joint teams for design and testing. Once the hardware secures necessary naval and classification society qualifications, pilot installations will begin on selected vessels, starting with 18 Next Generation Fast Patrol Vessels (NGFPVs) from HSL's Rs 3,000-crore order book.

Ultimately, this initiative reinforces New Delhi's broader self-reliance program to manufacture military hardware locally and curtail foreign imports.

Although India has achieved substantial progress in hull fabrication, mastering onboard sensors, communication suites, and integrated electronics remains essential—shifting Make in India from the outer shell into the digital core of modern warships.

Agencies


ValueQuest Backs Indian Defence Technology Firm As It Expands Strategic Defence Investments


ValueQuest Investment Advisors has strengthened its focus on India’s defence sector through its latest investment commitments, including backing Sagar Defence Engineering, a company specialising in indigenous defence technologies and autonomous systems.

The Mumbai-based investment firm, which manages approximately $3.31 billion across public and private markets, announced a new investment in Sagar Defence Engineering as part of a broader capital deployment initiative. The move reflects ValueQuest’s conviction in businesses positioned to benefit from defence indigenisation and the growing strategic importance of domestic technology development.

Sagar Defence Engineering develops indigenous defence solutions, with a particular focus on unmanned and autonomous systems for maritime and other defence applications. The company is well placed to capitalise on increasing adoption of autonomous technologies across military operations and India's continued push towards self-reliance in defence capabilities.

The investment comes at a time when India is accelerating efforts to reduce dependence on imported defence equipment and strengthen its domestic defence manufacturing ecosystem. Autonomous and unmanned platforms are becoming increasingly important in modern military operations, especially across surveillance, reconnaissance and maritime security missions.

Commenting on the broader investment thesis, Ravi Dharamshi, Founder and Chief Investment Officer of ValueQuest, said: “India is entering a defining phase in its industrial evolution. Global supply chains are being realigned, technological sovereignty is becoming a strategic priority, and a sustained industrial investment cycle is creating opportunities for Indian businesses to move up the manufacturing value chain.

The opportunity is not simply for India to manufacture more, but for Indian companies to develop the technology, capabilities and customer relationships to become globally competitive enterprises.”

According to ValueQuest, the investment was identified through a pipeline developed over the past 12 to 18 months, supported by thematic research and engagement with entrepreneurs. The firm views defence technology as a long-term strategic opportunity as governments and armed forces increasingly prioritise domestically developed and technologically advanced systems.

The commitment also reinforces ValueQuest’s growing private equity platform, which manages more than ₹6,000 crore, including co-investments. The firm is currently building SCALE Fund-II, its third investment vehicle, following the experience gained through SCALE Fund I.

Founded in 2010, ValueQuest continues to seek opportunities in sectors aligned with India's strategic priorities. Its investment in Sagar Defence Engineering highlights growing investor confidence in indigenous defence technology companies as the country advances its defence modernisation and self-reliance agenda.

Agencies


Indian Navy's Ageing Chetak Helicopters Set For New Life As Autonomous Combat Drones


The Indian Navy’s ageing Chetak helicopters, which are gradually being retired after serving for decades, could soon be transformed into autonomous uncrewed aircraft capable of carrying out a wide range of military missions, The Hindu Business Line reported.

Defence technology company Xinfiniti AeroSpace has commenced ground-phase trials aimed at converting the Navy’s legacy Chetak helicopters into pilotless aerial platforms. The initiative is being developed under the Indian Navy-backed iDEX framework and represents one of the most ambitious attempts to repurpose an ageing military helicopter fleet.

If successful, the project would place India among a select group of only six nations known to have converted existing crewed military helicopter airframes into fully autonomous uncrewed systems.

The company specialises in transforming proven crewed helicopters, boats and land vehicles into autonomous platforms. Its flagship effort, the Naval Chetak Autonomous System (NCAS), is currently being developed in partnership with the Indian Navy.

The conversion process involves removing systems associated with human pilots and integrating autonomous flight controls, navigation technologies and ground-control infrastructure. The result would be a drone-like aircraft capable of operating without a pilot on board.

According to Xinfiniti AeroSpace Chief Executive Officer Vishal Kumar Verma, the Indian Navy awarded the company a major project to attempt what could become India’s first successful conversion of legacy helicopters into autonomous, pilotless aircraft.

Verma said the modified aircraft could perform a broad range of missions, including heavy cargo lifting, reconnaissance, surveillance and combat operations, while using an already proven airframe.

He further argued that the initiative could make autonomous helicopter capabilities far more affordable for India’s armed forces. Drawing a comparison with the transformational impact of the Maruti 800 on the Indian automotive sector, he suggested the project could significantly lower barriers to adopting autonomous aviation technology.

According to Verma, the converted helicopters would be capable of operating in adverse weather conditions while costing considerably less than developing an entirely new helicopter in the same category. The approach could also sharply reduce development timelines by leveraging existing aircraft rather than designing a platform from scratch.

The Chetak is a seven-seat, multi-role helicopter produced in India by Hindustan Aeronautics Limited under licence from the French manufacturer Sud-Aviation. First inducted into Indian military service during the 1960s, the aircraft has been extensively employed by the Navy, Army, Air Force and Coast Guard.

Over the decades, the platform has undertaken a variety of roles, including transport, communications, search-and-rescue missions, maritime patrols, casualty evacuation and general military support duties. 

As newer helicopter types gradually replace the ageing fleet, the autonomous conversion program could provide the venerable aircraft with a second operational life rather than sending them into retirement.

“This could be India’s first conversion of legacy helicopters into autonomous, pilotless aircraft,” Verma said, adding that the platforms could carry out “heavy cargo lifting, reconnaissance and combat operations” while remaining significantly more cost-effective than developing a new helicopter from the ground up.

Agencies


TDB-DST Backs Astrome's AI-Enabled Space Intelligence Constellation With ₹64.05 Crore RDI Support


The Technology Development Board (TDB), under the Department of Science & Technology (DST), Government of India, has signed an agreement with Astrome Technologies Pvt Ltd, Bangalore, providing ₹64.05 crore in financial assistance through the Research, Development And Innovation (RDI) Fund, announced PIB.

The project's total cost stands at ₹128.11 crore and is aimed at developing a sovereign space-based Artificial Intelligence-enabled Electronic Intelligence (AI-ELINT) constellation for national security applications.

The funding will be extended through Optionally Convertible Debt (OCD) and is intended to support the development of critical indigenous technologies from Technology Readiness Level (TRL)-4 to TRL-9, taking them from advanced prototyping to deployment-ready systems.

The initiative reflects India's growing focus on strengthening domestic capabilities in space-based intelligence, secure communications and advanced data processing technologies. As space increasingly becomes a strategic domain, indigenous systems for intelligence gathering and real-time information analysis are gaining importance for national security and technological self-reliance.

Astrome's project combines three major technology pillars into a single integrated platform: an Electronic Intelligence (ELINT) payload, Artificial Intelligence-driven ground processing software, and inter-satellite communication links. Together, these technologies are intended to create an advanced constellation capable of persistent surveillance and intelligence collection.

The proposed architecture centres on microsatellites in the 50 kg class operating in low-Earth orbit. These satellites will be progressively deployed as part of a constellation designed to enhance coverage, improve revisit rates and provide more frequent observation of areas of interest.

The ELINT payload is being developed to detect, collect and analyse signals across a wide frequency spectrum. Supporting this capability, the AI-powered ground segment will process and interpret large volumes of information generated by the satellite network, enabling efficient analysis and decision-making.

A key element of the project is the development of indigenous inter-satellite communication links, allowing satellites within the constellation to exchange information and function as a coordinated network. This capability is expected to improve operational effectiveness and enable more integrated mission performance.

The project encompasses technology development, engineering, integration, testing and validation activities required to advance all core systems to TRL-9, demonstrating readiness for operational deployment.

Positioned within India's Deep Technology sector and specifically under Space Technology, the initiative brings together several frontier disciplines, including satellite engineering, electronic intelligence, Artificial Intelligence and secure space communications.

Rajesh Kumar Pathak, Secretary, Technology Development Board, said: "India's growing capabilities in space technology are creating new opportunities to develop advanced systems that combine indigenous engineering with artificial intelligence and next-generation communications. Building such complex technology platforms requires sustained innovation, rigorous validation and long-term investment.

Through the RDI Fund, TDB is supporting Indian enterprises working on frontier technologies that can strengthen the country's strategic technology capabilities. The project with Astrome reflects the potential of India's deep-tech ecosystem to develop sophisticated space-based solutions for emerging national requirements."

An authorised representative of Astrome Technologies stated: "The support from TDB under the RDI Fund will help us accelerate the development and integration of critical technologies for our AI-enabled space-based intelligence program.

By bringing together indigenous ELINT payloads, AI-based data processing and inter-satellite communications, we aim to develop an integrated constellation capability that can address emerging requirements in the space and national security domains. This partnership will support our efforts to advance these technologies towards TRL-9."

The project marks another step in India's broader push towards strategic autonomy in critical space technologies, with increasing emphasis on developing indigenous capabilities in satellite systems, secure communications, artificial intelligence and intelligence-gathering infrastructure for future national requirements.

PIB


Ski-Jump Drone Trials Could Unlock India's Next Naval Aviation Leap


Upcoming trials of Northrop Grumman's Talon Blue drone, designated YFQ-48A by the US military, are set to demonstrate how a collaborative combat aircraft (CCA) can launch from a ski-jump aircraft carrier next year.

Following its maiden autonomous flight in Mojave, California, in October 2026, the jet-powered drone's upcoming deck launch holds immense strategic relevance for India's maritime ambitions.

Unlike flat-deck carriers equipped with catapults to fling jets airborne, India's indigenous carrier INS Vikrant relies on a bow ski-jump ramp angled at roughly 14 degrees. Aircraft on the Vikrant take off entirely under their own power, utilising the upward-curved ramp and the warship's forward speed into the wind to lift heavier fuel and weapon payloads into the sky.

Proving that an uncrewed jet can safely launch off a ski-jump deck and seamlessly integrate alongside crewed fighters within an air wing of 30 to 40 aircraft will validate a crucial operational concept for New Delhi.

India is actively pursuing its own unmanned wingman capability through the Naval Collaborative Combat Air Vehicle (N-CCAV) program. Centred on the Abhimanyu platform, this indigenous effort is spearheaded by the Bangalore-based Start-Up NewSpace Research & Technologies.

Selected under the Ministry of Defence's iDEX (Innovations for Defence Excellence) initiative via ADITI 2.0, the Start-Up showcased a half-scale model at Aero India in February 2025 before signing a formal design-and-development contract in April 2025. While a proof-of-concept aircraft was targeted for 2026, the system remains in development rather than operational induction.

Designed with swept wings and low-observable features, the jet-powered Abhimanyu is intended to augment—rather than replace—the Indian Navy's crewed MiG-29K and Rafale-M fighter fleets. Operating semi-autonomously under high-level pilot commands, the drone is built to fly ahead of manned jets to execute surveillance, electronic warfare, radar jamming, decoy, and strike-support missions.

Despite the shared ski-jump launch architecture, a key technical divergence remains in how these aircraft return to the ship. While short take-off and vertical landing decks lack arresting gear, INS Vikrant employs an arrested recovery system, requiring aircraft to catch one of four deck wires with a tail hook to decelerate safely.

The US Navy previously demonstrated autonomous carrier landings when the X-47B touched down aboard the USS George HW Bush in 2013, and it plans to regularly operate the MQ-25A Stingray from its flat tops from 2029 onwards.


Consequently, while an international ski-jump launch demonstration offers valuable validation for India's naval aviation roadmap, New Delhi will still need to independently master deck recovery. 

Shipboard storage, deck handling, maintenance, and arrested recovery procedures for the N-CCAV will all require rigorous testing aboard Indian warships before operational deployment.

Agencies


Constelli India Seals Spark Grant Deal For Drone-Based Signal Intelligence In Hilly Terrain & High-Altitude Areas


Constelli India signed a Spark Grant Agreement at the Defence Innovation Organisation (DIO) office on 12 November 2026. The signing marked a fresh step for indigenous defence innovation in India.

The project centres on the development of UAS-Based ESM for SIGINT in hilly terrain and high-altitude areas. UAS stands for Unmanned Aircraft System. ESM stands for Electronic Support Measures.

SIGINT stands for Signals Intelligence. The system is meant to listen, detect and make sense of electronic signals from the air. It is designed for places where ground systems struggle. Hills, ridges and high passes often block signals. They also limit line of sight. A drone-based system can rise above those barriers. It can therefore watch a wider area. It can also reach places that are hard to access on foot or by vehicle.

The stakeholder and beneficiary is the Indian Air Force (IAF) Maintenance Command (MCC). The Command will guide the operational need behind the work. Its role links the technology to real maintenance, readiness and field use.

The initiative falls under iDEX. iDEX stands for Innovation for Defence Excellence. It is a scheme that backs indigenous defence manufacturing and innovation. It supports the wider push for Aatmanirbharta in Defence. Aatmanirbharta means self-reliance. The aim is to build critical capability inside India. It also aims to reduce dependence on foreign suppliers.

Constelli India is a Hyderabad-based defence technology Start-Up. The firm specialises in electronic intelligence and signal processing. Its work covers radar, electronic warfare, tactical communications and telemetry. It was founded in November 2017 by Satya Gopal Panigrahi and Avinash Chenreddy. It began with a strong software focus. It has since added hardware capability. It has also supplied sub-systems over the past four to five years.

In February 2026, the company raised about $20 million. The round was led by General Catalyst. It also saw participation from 360 One Asset Management and existing investor Pravega Ventures. The fresh capital was meant to accelerate research and development. That work focuses on next-generation electronic warfare and communication payloads. Those payloads are designed for drones, ground systems, naval vessels and satellites.

The new Spark Grant fits that same direction. SPARK stands for Support for Prototype and Research Kickstart. Under iDEX, the grant helps Start-Ups and MSMEs turn ideas into working prototypes. Funding is generally released against defined milestones.

iDEX does not take equity in the Start-Up or MSME. The DIO is the body behind iDEX. It works under the Ministry of Defence. It was set up to give high-level policy guidance for high-technology indigenous ventures. Those ventures serve India's defence and aerospace needs.

The timing matters for the Air Force. Modern operations depend on fast, accurate electronic awareness. In mountain areas, that awareness is harder to gain. An airborne ESM payload can improve detection. It can improve direction-finding. It can improve the tracking of adversary emissions. It can also support safer planning for air operations.

The project therefore blends three strands. The first is unmanned flight. The second is electronic support. The third is signals intelligence. Together, they offer a flexible sensing layer for difficult terrain.

The agreement does not, by itself, promise a finished product. It starts a structured development path. That path will test design, performance and field fit. It will also test how the system works at altitude. Cold, wind, thin air and rugged ground all add risk. The grant model is meant to manage that risk in stages. Each milestone can be checked before the next step begins.

For Constelli India, the deal adds a clear defence user. It also adds a clear operational problem. For the IAF Maintenance Command, it offers a home-grown option. For iDEX, it shows the program working as intended. A Start-Up receives support. A Service states its need. A prototype moves closer to use.

The broader goal remains unchanged. India seeks to design, build and sustain its own defence electronics.

Deals such as this one help turn that goal into hardware, software and tested capability.