DRDO Successfully Tests Indigenous Integrated Air Defence Weapon System (IADWS)

In a landmark achievement for India’s defense modernization, the Defence Research and Development Organisation (DRDO) today successfully conducted the maiden flight-tests of the all-indigenous Integrated Air Defence Weapon System (IADWS) off the coast of Odisha. The multi-layered system, designed to neutralize a spectrum of aerial threats, marks a significant leap in India’s self-reliant defense capabilities.

What Is IADWS?

The Integrated Air Defence Weapon System is a tiered, modular air defense architecture that combines:

• QRSAM (Quick Reaction Surface-to-Air Missiles) for medium-range threats
• VSHORADS (Very Short Range Air Defence System) for close-range engagements
• Directed Energy Weapons (DEW) using high-power lasers to disable drones and low-altitude targets

All components are seamlessly coordinated through a Centralised Command and Control Centre, developed by DRDO’s Defence Research & Development Laboratory (DRDL), enabling real-time threat assessment and response.

Maiden flight Tests of Integrated Air Defence Weapon System (IADWS) was successfully conducted on 23 Aug 2025 at around 1230 Hrs off the coast of Odisha.

IADWS is a multi-layered air defence system comprising of all indigenous Quick Reaction Surface to Air Missile (QRSAM),… pic.twitter.com/Jp3v1vEtJp

— DRDO (@DRDO_India) August 24, 2025

Inside the Test: Precision Across Layers

Conducted at 12:30 PM IST at the Integrated Test Range, Chandipur, the test involved three aerial targets:

• Two high-speed fixed-wing UAVs
• One multi-copter drone

Each target was intercepted by a different tier of the IADWS:

• QRSAM neutralized medium-range UAVs with precision-guided missiles
• VSHORADS engaged short-range threats using shoulder-fired systems
• DEW successfully disabled the drone using laser energy

Strategic Implications

Defence Minister Rajnath Singh lauded the achievement, stating:
“The successful demonstration of IADWS reflects India’s growing prowess in multi-layered air defence and indigenous innovation. It strengthens our ability to protect critical infrastructure and national assets against evolving aerial threats.”
This test places India in elite company alongside nations like:

Country	System Name	Capabilities
🇺🇸 USA	Patriot, THAAD	Long-range, ballistic missile defense
🇷🇺 Russia	S-400	Multi-target, long-range interception
🇮🇱 Israel	Iron Dome	Short-range rocket and drone defense
🇮🇳 India	IADWS	Integrated kinetic + laser-based defense

What’s Next?

With successful validation of its layered architecture, IADWS is expected to undergo further trials before deployment across strategic zones, including border regions and critical urban infrastructure. Its modular design allows for rapid deployment and scalability, making it a cornerstone of India’s future air defense grid.

India’s Pralay Missile Passes Back-to-Back Trials, Showcases Indigenous Precision Strike Power

DRDO has conducted two consecutive successful flight-tests of Pralay missile from Dr APJ Abdul Kalam island off the coast of Odisha. The flight-tests were carried out as a part of User Evaluation Trials to validate the maximum and minimum range capability of the missile system.

Pralay is an indigenously-developed solid propellant quasi-ballistic missile employing state-of-the-art guidance and navigation to ensure high precision. It is capable of carrying multiple types of warheads against various targets.

Test Overview

• Dates: July 28 & 29, 2025
• Location: Dr APJ Abdul Kalam Island, off the coast of Odisha
• Purpose: User Evaluation Trials to validate maximum and minimum range capabilities
• Outcome: Both missiles hit their targets with pinpoint accuracy, meeting all test objectives

Missile Specifications

Feature	Details
Type	Quasi-ballistic, surface-to-surface missile
Propulsion	Two-stage solid propellant rocket motor
Range	150–500 km
Speed	Mach 1 to Mach 1.6
Warhead Capacity	350–700 kg, multiple conventional types
Guidance System	Inertial navigation with real-time trajectory correction
Launch Platform	Mobile 8x8 BEML Tatra Transporter Erector Launcher
Maneuverability	Mid-course adjustments to evade interception

Test Highlights

• Trajectory: Quasi-ballistic, low-altitude flight path to evade radar detection
• Tracking: Verified using sensors from Integrated Test Range (ITR), including ship-based instruments
• Participants: Senior DRDO scientists, Indian Army & Air Force reps, and industry partners

Strategic Significance

• Battlefield Utility: Designed for tactical strikes on enemy logistics hubs, airbases, and command centers
• Rapid Deployment: Mobile launch capability ensures quick response in high-stakes scenarios
• Self-Reliance: Fully indigenously developed by DRDO and partners like Bharat Dynamics & BEL

Official Statements

• Defence Minister Rajnath Singh: Praised the trials as a “technological boost” to India’s Armed Forces
• DRDO Chairman Dr Samir V Kamat: Called it a milestone that paves the way for induction into active service

DRDO Successfully Tests SAAW, Enhancing India’s Precision Strike Capability

In a major boost to India’s defense technology, the Defence Research and Development Organisation (DRDO) has successfully tested the Smart Anti-Airfield Weapon (SAAW)—a precision-guided glide bomb designed to neutralize enemy airbases without crossing the border.

What is SAAW?

SAAW is a 125-kg class smart bomb capable of striking targets like runways, bunkers, radar stations, and fuel depots from over 100 kilometers away. Unlike traditional bombs or missiles, it doesn’t require the launching aircraft to enter enemy airspace—making it a game-changer in stand-off warfare.

Key Features:

• Stand-off Precision: SAAW can be launched from a safe distance, keeping pilots and aircraft out of any harm.
• Pinpoint Accuracy: With guidance from GPS, India's own NavIC satellite system, and onboard seekers, the weapon can strike within 3–7 meters of its intended target.
• Cost Efficiency: Unlike powered missiles, SAAW glides to its target, making it a relatively low-cost yet highly effective option.
• Platform Versatility: It’s compatible with a wide range of Indian Air Force aircraft including the Su-30 MKI, Mirage 2000, Tejas, and potentially upcoming unmanned platforms like HAL’s CATS Warrior.

Strategic Implications

SAAW enhances India’s capability to disable enemy airbases quickly and precisely—without direct confrontation. This not only strengthens defensive posture but allows for measured, non-escalatory responses in high-stakes situations.

Defense analysts view SAAW as a critical addition to India’s evolving smart weapons ecosystem, reflecting DRDO’s growing focus on indigenous innovation and strategic autonomy.

As global conflict theaters increasingly value precision and discretion over brute force, India's SAAW may very well mark a turning point in how modern air power is projected—quiet, calculated, and devastatingly effective from afar.

DRDO Transfers 9 Defence Technologies to 10 Private Players, Boosting India's Military Innovation

In a strategic push towards self-reliance in military technology, India’s Defence Research and Development Organisation (DRDO) has transferred nine defence system technologies to ten industry partners. This milestone underscores the government's commitment to fostering public-private collaboration in defence production, empowering private firms with advanced military technology for indigenous manufacturing and innovation.

The Defence Systems Being Transferred

• CBRN Recce Vehicle (Tracked) Mk-II – Designed to detect and analyze Chemical, Biological, Radiological, and Nuclear (CBRN) hazards on the battlefield.
• Mounted Gun System – An advanced weaponized platform providing superior firepower.
• Anti-Terrorist Vehicle (Tracked Version) – A specialized combat vehicle for counter-terrorism operations.
• 70-Ton Tank Transporter Trailer for MBT Arjun Mk-1A – A robust logistics solution for transporting India's main battle tank (MBT) Arjun Mk-1A.
• Expandable Mobile Shelter – A deployable infrastructure for strategic operations and command centers.
• Vajra Riot Control Vehicle – Designed for crowd management and security operations.
• Unit Maintenance Vehicle for MBT Arjun – A mobile repair and maintenance system for India’s premier battle tank.
• Multi-Purpose Decontamination System – Capable of cleansing contaminated environments from hazardous agents.

Industry Partners Driving Defence Innovation

The ten private sector companies receiving these technologies are:

1. Bharat Electronics Limited (BEL) - CBRN Recce Vehicle (Tracked) Mk-II, Expandable Mobile Shelter  
2. Bharat Forge Limited - Mounted Gun System  
3. Metaltech Motor Bodies Private Limited - Anti-Terrorist Vehicle (Tracked Version)  
4. BEML Limited - 70-Ton Tank Transporter Trailer for MBT Arjun Mk-1A, Unit Maintenance Vehicle for MBT Arjun
5. Tata International Vehicle Applications - 70-Ton Tank Transporter Trailer for MBT Arjun Mk-1A  
6. SDR Auto Private Limited - 70-Ton Tank Transporter Trailer for MBT Arjun Mk-1A  
7. John Galt International - 70-Ton Tank Transporter Trailer for MBT Arjun Mk-1A  
8. Tata Advanced Systems Limited - Vajra Riot Control Vehicle
9. Dass Hitachi Limited - Multi-Purpose Decontamination System
10. Goma Engineering Private Limited - Multi-Purpose Decontamination System

Strategic Importance of the Technology Transfer

This initiative aligns with India’s Atmanirbhar Bharat vision, enhancing domestic defence capabilities while driving innovation in the private sector. The collaboration is expected to:

• Boost indigenous defence manufacturing and reduce dependency on imports.
• Encourage technological advancements in India’s defence industry.
• Enhance military preparedness through faster production cycles.
• Strengthen public-private ties, positioning private firms as key stakeholders in national security.

Additionally, DRDO has signed a Memorandum of Understanding (MoU) with COEP Technological University, Pune, to 
collaborate on emerging defence technologies, ensuring that India remains at the forefront of military innovation.

To explain one of the transferred technologies, let's take a look at the CBRN Recce Vehicle (Tracked) Mk-II, which was transferred to Bharat Electronics Limited.

This vehicle is designed for reconnaissance in environments contaminated with Chemical, Biological, Radiological, and Nuclear (CBRN) agents. It can detect, identify, monitor, and mark hazardous areas, transmitting this critical information to military formations for strategic response 1

A Bold Step Toward Defence Modernization

With this technology transfer, DRDO is accelerating India’s defence modernization efforts, placing cutting-edge military technology in the hands of private players. This marks a significant shift in how India approaches defence development, ensuring that military assets are produced swiftly and efficiently, backed by the expertise of the private sector.

As India marches towards global leadership in defence innovation, these public-private collaborations will play a pivotal role in shaping the country’s military strategy for the future.

DRDO’s New Quantum Research Centre in Delhi Strengthens National Security

India's quantum ambitions just took a big leap! The Defence Research and Development Organisation (DRDO) has inaugurated the Quantum Technology Research Centre (QTRC) at Metcalfe House, Delhi. This facility is designed to strengthen indigenous quantum capabilities for strategic and defence applications.

Spearheaded by Solid State Physics Laboratory (SSPL), QTRC also focuses on foundational technologies including an Ultra-Small Atomic Clock based on Coherent Population Trapping for highly precise timekeeping in Global Navigation Satellite System-denied environments, an Atomic Magnetometer using optically pumped magnetometry for ultra-sensitive magnetic field detection, and Cutting-edge solid-state quantum devices and materials.

A 6 qubit Quantum processor based on superconducting circuit technology, by DRDO and TIFR 

Key Highlights:

• Ultra-Secure Communication: The centre will focus on Quantum Key Distribution (QKD) techniques to safeguard national security in the post-quantum era.
• Advanced Quantum Devices: Research includes atomic magnetometers, ultra-small atomic clocks, and solid-state quantum materials.
• Cutting-Edge Experimental Setups: Includes single-photon source test-beds, laser characterization platforms, and micro-fabricated alkali vapor cell analysis.
• National Quantum Mission: DRDO is a key stakeholder, driving indigenous innovation in quantum sensing, secure communications, and post-quantum cryptography.

The inauguration ceremony was graced by Director General (Micro Electronic Devices, Computational Systems & Cyber Systems) Smt Suma Varughese whose vision and leadership were instrumental in conceptualising this cutting-edge facility. DG (Resource & Management) Dr Manu Korulla and Directors of SSPL and SAG, senior scientists, and other dignitaries attended the function.

This move aligns with India's broader push to develop sovereign quantum technologies, ensuring strategic superiority in emerging defence applications.

India Conducts Maiden Flight-Trials of Stratospheric Airship Platform

India's Defence Research and Development Organisation (DRDO) successfully conducted the maiden flight-trials of its Stratospheric Airship Platform at the Sheopur trial site in Madhya Pradesh. This high-altitude airship, developed by the Aerial Delivery Research and Development Establishment (ADRDE), Agra, ascended to approximately 17 kilometers, carrying an instrumental payload.

The trial lasted 62 minutes, during which key onboard systems—such as envelope pressure control and emergency deflation mechanisms —were tested and performed as expected. Defence Minister Rajnath Singh praised the achievement, emphasizing that this system will significantly enhance India’s earth observation and Intelligence, Surveillance & Reconnaissance (ISR) capabilities.

 

This marks a major step forward in India's aerospace technology, placing it among the few nations with indigenous lighter-than-air high-altitude platforms.

Defence Minister Rajnath Singh has congratulated DRDO for the successful maiden flight-trial of the system. He stated that this system will uniquely enhance India’s earth observation and Intelligence, Surveillance & Reconnaissance capabilities, making the country one of the few countries in the world having such indigenous capabilities.

Secretary, Department of Defence R&D and Chairman DRDO Dr Samir V Kamat congratulated the DRDO team involved in design, development and trial of the system. He said the prototype flight is a milestone towards realisation of lighter-than-air high-altitude platform systems that can remain airborne for very long endurance at stratospheric heights.

CSIR-NAL with DRDO and ISRO to Construct Most Advanced CTW Tunnel for Aerodynamic Research & Testing

The Council of Scientific and Industrial Research – National Aerospace Laboratories (CSIR-NAL), the Defence Research and Development Organisation (DRDO), and the Indian Space Research Organisation (ISRO) have teamed up to build a state-of-the-art Continuous Trisonic Wind Tunnel (CTWT) or CTW Tunnel. This facility is expected to be one of the world's most advanced of its kind.

A Continuous Trisonic Wind Tunnel (CTWT) is a sophisticated facility designed to simulate the conditions that aircraft and aerospace vehicles experience at various speeds, including subsonic, transonic, and supersonic speeds (Mach 0.1 to 4).

Unlike traditional wind tunnels that operate intermittently, a CTWT can run continuously, allowing for long-duration tests that are crucial for studying steady-state aerodynamic behaviors.

The CTWT project, which has been approved for development, aims to be completed by 2031. The CTWT will feature two distinct wind tunnels: a Continuous Type Wind Tunnel and a Blowdown Type Wind Tunnel. These tunnels will allow for long-duration tests and high-speed aerodynamic simulations, significantly reducing India's reliance on foreign facilities.

The Continuous Type Wind Tunnel will be 2.5 meters wide by 2.5 meters high. The facility will be capable of simulating air speeds from Mach 0.1 to 1.8. The CTW Tunnel will be designed for continuous operation, allowing for long-duration tests crucial for analyzing steady-state aerodynamic behaviors.

The Blowdown Type Wind Tunnel will be 1.75 meters wide by 1.75 meters high. It will be designed for higher speeds and transient flight conditions, offering insights into high-speed aerodynamics. The Blowdown Type Wind Tunnel will be capable of simulating air speeds from Mach 1.6 to 4. 

Notably, the North American Trisonic Wind Tunnel (NATWT) located in El Segundo, California, built by North American Aviation in the 1950s, had a maximum testing speed of Mach 3.5.

The collaboration between CSIR-NAL, DRDO, and ISRO to build a new Continuous Trisonic Wind Tunnel (CTWT) facility is a significant step for India's aerospace capabilities.

This facility will help reduce reliance on foreign wind tunnels, saving both time and costs, while enhancing national security by keeping sensitive projects within the country.

This ambitious project is expected to be completed by 2031, with a Detailed Project Report (DPR) finalized by July 2025.

These advanced wind tunnels will help studying the behavior of aircraft, missiles, and space vehicles under various flight conditions, and at the same time reducing reliance on foreign wind tunnels and keeping sensitive projects within the country.

India Achieves Milestone in Next-Gen Hypersonic Missiles Development, Successfully Conducts Ground Test of Scramjet Engine

The Defence Research & Development Laboratory (DRDL), a Hyderabad-based laboratory of Defence Research and Development Organisation (DRDO) recently conducted a successful ground test of a scramjet engine. This test marks a significant milestone in India's development of next-generation hypersonic missiles.

A scramjet (supersonic combustion ramjet) is a type of airbreathing jet engine designed to operate at extremely high speeds, typically greater than Mach 5 (five times the speed of sound). Unlike traditional jet engines, scramjets do not have rotating compressors or turbines. Instead, they use the high speed of the vehicle to compress incoming air before combustion.

Here are some key details of the ground test by DRDO:

1. Test Duration: The scramjet combustor ground test lasted for 120 seconds, demonstrating stable combustion and successful ignition.

 

2. Speed: Hypersonic missiles, powered by scramjet engines, can travel at speeds greater than Mach 5 (five times the speed of sound or more than 5,400 km/hr).

3. Technological Achievements: The test showcased several notable achievements, including an innovative flame stabilization technique that maintains continuous combustion at air speeds exceeding 1.5 km/s.

4. Indigenous Development: The indigenous development of endothermic scramjet fuel, the first time in India, jointly by DRDL and Industry is central to this breakthrough.

The endothermic scramjet fuel offers significant cooling improvements and ease of ignition. The team developed a special manufacturing process to achieve stringent fuel requirements of DRDL at Industrial scale.

A state-of-the-art ceramic thermal barrier coating (TBC) was developed to withstand extreme temperatures encountered during hypersonic flight.

TBC is an another key achievement along side the Scramjet. The TBC developed is designed to withstand extreme temperatures encountered during hypersonic flight. A new advanced ceramic TBC having high thermal resistance & capable of operating beyond melting point of steel has been jointly developed by DRDL and Department of Science & Technology (DST) Laboratory.

Defence Minister Rajnath Singh praised the DRDO and industry partners for this achievement, highlighting its importance for advancing India's hypersonic missile capabilities.

Scramjets are primarily used in experimental and military applications, such as hypersonic missiles and Space planes.

Mumbai-based Deeptech Startup Delivered Its Green Propulsion System to DRDO

Manastu Space Technologies, a Mumbai-based deep-tech startup, has delivered its iBooster Green Propulsion System to the Defence Research and Development Organisation (DRDO).

🚀 Milestone Alert: Proud to hand over our 1st Green Propulsion System to Dr. Samir V Kamat, Secretary DDR&D at the 11th TDF Empowered Committee meeting
Making space tech sustainable while advancing #MakeInIndia 🇮🇳
Thank you @DRDO_India for the continuous support! pic.twitter.com/wQfBMZ3mjX

— Manastu Space (@ManastuSpace) December 10, 2024

This system is designed for satellites weighing between 100 and 500 kg and will be used for critical operations such as orbit raising, station-keeping, and deorbiting.

Founded in 2017 by Tushar Jadhav and Ashtesh Kumar, Manastu Space Technologies specializes in developing green propulsion systems and satellite technology to address critical challenges in space safety and sustainability.

Key Features of iBooster Green Propulsion System:

• Proprietary Hydrogen Peroxide-Based Fuel: Safer, more environmentally friendly, and cost-effective compared to conventional toxic fuels
• Optimized Thruster Design: Ensures enhanced efficiency and precision.
• High-Temperature Catalyst: Provides seamless ignition and long-term performance in space.

This achievement is the result of four years of intensive research and development, supported by DRDO's Technology Development Fund (TDF). Manastu Space is now preparing for a space test aboard an upcoming PSLV mission by ISRO, which will demonstrate the system's capabilities on a global stage.

iBooster 

Last year in October, Manastu Space has successfully secured $3 million Pre-Series A round, led by IAN.

Apart from the iBooster Green Propulsion System, Manastu Space has developed several other innovative products and solutions such as Debris Collision Avoidance System, a system designed to prevent satellite collisions and reduce space debris by providing agile and efficient propulsion capabilities.

Vyom 1U Module, a compact propulsion module for small satellites (5U to 24U+), offering specific impulse and thrust capabilities suitable for various mission requirements.

Young Scientists From DRDO's Lab Complete End-To-End Testing of Quantum Processor Based on Superconducting Circuit Technology

Scientists from the DRDO Young Scientists Laboratory for Quantum Technologies (DYSL-QT) in Pune, in collaboration with the Tata Institute of Fundamental Research (TIFR) in Mumbai, have successfully completed the end-to-end testing of a 6-qubit quantum processor based on superconducting circuit technology.

For a novice, Superconducting Circuits are electronic circuits that operate at extremely low temperatures, where certain materials exhibit zero electrical resistance. This property allows for the creation of highly efficient and fast circuits, which are crucial for quantum computing.

Many quantum processors, including those developed by companies like Google and IBM, use superconducting circuit technology.

This milestone by DRDO's young scientists involved submitting a quantum circuit from a cloud-based interface, executing the program on the quantum hardware, and updating the cloud interface with the computed results.

 

Image - DRDO 

The project is a collaboration between DYSL-QT, TIFR, and Tata Consultancy Services (TCS), with the qubits designed and fabricated at TIFR.

The scientists at DYSL-QT developed the control and measurement apparatus using a combination of commercial off-the-shelf electronics and custom-programmed development boards. They are also responsible for optimizing various aspects of the system’s performance before it becomes operational.

The qubits used in the quantum processor were designed and fabricated at TIFR. The architecture of the quantum processor is based on a novel ring-resonator design invented at TIFR.

TCS developed the cloud-based interface that allows users to submit quantum circuits, execute programs on the quantum hardware, and receive computed results.

In future plans, the next steps include scaling up the number of qubits and assessing the technology’s scalability and feasibility for commercial application.

Beside this, the scientists want to further optimize the system's performance and scaling up the number of qubits to assess the technology's scalability and feasibiliy for commercial applications.

Few days back, the National Quantum Mission (NQM) of India announced to offer grants to 10 to 15 startups in the next three months to support startups in the field of quantum computing.

India Soon To Launch Its First Quantum Computer

Tata Institute of Fundamental Research's (TIFR's) Jay Deshmukh (left) and Binoy Nambiar of the Defence Research and Development Organisation (DRDO) working on a dilution refrigerator used to cool superconducting qubits; (Photo: Mandar Deodhar | Source – IndiaToday.in)

India is making significant strides in the field of quantum computing. The Tata Institute of Fundamental Research (TIFR) in Mumbai is on the verge of completing the country's first quantum computer. This groundbreaking achievement is a testament to the relentless efforts of the Quantum Measurement and Control (QuMaC) lab, which was established 12 years ago with the specific goal of tackling the complex challenges inherent in quantum system development.

Led by Dr. R. Vijayaraghavan, QuMaC views this initial quantum computer as a pivotal stepping stone for India's foray into the burgeoning field of quantum technology. The project, undertaken in collaboration with the Defence Research and Development Organisation (DRDO) and Tata Consultancy Services (TCS), involves designing critical components such as the quantum processing unit, electronics, and software—each presenting its own intricate challenges.

For uninitiated, quantum computers, leveraging the principles of quantum mechanics, hold immense promise for revolutionizing fields ranging from drug discovery and materials science to cryptography and artificial intelligence. While still in its nascent stages, this breakthrough by TIFR marks a crucial step for India in joining the global race to harness the power of quantum computing.

TIFR, in its pursuit of creating India’s first quantum computer, has partnered with two key entities: the Defence Research and Development Organisation (DRDO) and Tata Consultancy Services (TCS). The collaboration with DRDO brings expertise in defense technology and research. DRDO’s involvement likely focuses on security applications and potential military use cases for quantum computing.

Together with TIFR, DRDO contributes to the design and development of critical components, including the quantum processing unit, electronics, and software.

TCS collaborates with TIFR to create the necessary software stack for the quantum computer. This includes programming languages, compilers, and tools to harness the quantum hardware efectively.

Additionally, TCS may contribute insights into practical applications of quantum computing across various domains.

It may be recalled that in June, IndianWeb2 reported that the Government of India is looking to work with IT services majors like TCS, HCL and Tech Mahindra to develop software for quantum technologies under the NQM, which will support Indian startups and scientists working in the emerging area.

Besides this, Indian Institute of Science (IISc) too launched its Quantum Technology Initiative (IQTI) in September 2020. The initiative aims to establish a solid foundation for quantum technologies by fostering collaborations between physicists, material scientists, computer scientists, and engineers. It actively engages with businesses and strategic partners to develop technology with economic and social impact

Additionally, the Indian Institute of Technology (IIT) Mandi is also working on an indigenous room-temperature quantum computer that will use photons for faster calculations.

Tata Advanced Systems Reportedly to Get Order of 100 Wheeler Armor Vehicle Platform from Indian Army

Tata Advanced Systems, a subsidiary of Tata Sons, is likely to secure an order for over 100 wheeled armored vehicle platforms from the Indian Army, said a report by Zee Business citing sources. A Request for Information (RFI) may be issued soon in this regard.

This order is expected to be for the 8x8 wheeled armored platform, developed in collaboration with the Defence Research and Development Organisation (DRDO). The contract could be signed within the next year.

The contract can be signed within the next one year, said the report.

This development highlights Tata Advanced Systems' significant role in India's defense sector, providing advanced solutions across various domains.

The 8x8 wheeled armored vehicles from Tata Advanced Systems are designed to meet the Indian Army’s requirements for mobility, protection, and firepower.

These vehicles are equipped with powerful engines and advanced suspension systems, allowing them to navigate rough terrains and challenging environments with ease.

Tata Advanced Systems (TASL) and the DRDO have a strong collaborative relationship, particularly in the development of advanced defense technologies. The 8x8 Wheeled Armored Platform is one of their notable joint projects. The platform is designed to meet the Indian Army’s requirements for mobility, protection, and firepower. It features advanced armor, modular design, and amphibious capabilities.

Under a contract with DRDO, TASL designed and manufactured combat management systems for the Medium-Range Surface-to-Air Missile (MRSAM) program. This system enhances the operational capabilities of the Indian Armed Forces.

TATA Kestrel is a wheeled armored personnel carrier developed by Tata Motors and DRDO. It is designed to meet the Indian Army’s requirements for a modern, versatile, and highly mobile armored vehicle.

Top Image – tataadvancedsystems.com

India Gets Its First Hypervelocity Expansion Tunnel Test Facility 'Jigarthanda' at IIT Kanpur

The Indian Institute of Technology Kanpur (IITK) has successfully established and tested India’s first Hypervelocity Expansion Tunnel Test Facility, a major achievement that puts India amongst only a handful of countries with this advanced hypersonic testing capability. The facility, named S2, is capable of generating flight speeds between 3-10 km/s, simulating the hypersonic conditions encountered during atmospheric entry of vehicles, asteroid entry, scramjet flights, and ballistic missiles. This makes it a valuable test facility for ongoing missions of ISRO and DRDO including Gaganyaan, RLV, and hypersonic cruise missiles.

The S2, nicknamed 'Jigarthanda', is a 24-meter-long facility located at IIT Kanpur’s Hypersonic Experimental Aerodynamics Laboratory (HEAL) within the Department of Aerospace Engineering. The S2 was indigenously designed and developed over a period of three years with funding and support from the Aeronautical Research and Development Board (ARDB), the Department of Science and Technology (DST), and IIT Kanpur.

The development of the facility was supported by the Fund for Improvement in S&T Infrastructure (FIST) of the Department of Science & Technology (DST) with a sum of Rs 4.5 Crores in 2018.

The facility consists of 4 major sections —free piston driver, compression tube, shock/acceleration tube and test section with high vacuum system for generating and sustaining the hypersonic flow. The complete instrumentation of the facility; pressure sensors and associated equipment/instruments for acquiring and processing the data and the vacuum system with test section and associated instrumentation was acquired through the DST- FIST program.

Commenting on this, Prof. S. Ganesh, Director, IIT Kanpur, said, "The successful establishment of S2, India's first hypervelocity expansion tunnel test facility, marks a historic milestone for IIT Kanpur and for India's scientific capabilities. I congratulate Prof. Sugarno and his team for their exemplary work in designing and fabricating the hypersonic research infrastructure. S2 will empower India's space and defence organizations with domestic hypersonic testing capabilities for critical projects and missions."

Prof. Mohammed Ibrahim Sugarno, Associate Professor, Department of Aerospace Engineering and Centre for Lasers & Photonics at IIT Kanpur said, "Building S2 has been extremely challenging, requiring in-depth knowledge of physics and precision engineering. The most crucial and challenging aspect was perfecting the 'free piston driver' system, which requires firing a piston at high pressure between 20-35 atmospheres down a 6.5 m. compression tube at speeds of 150-200 m/s, and bringing it to a complete stop or 'soft landing' at the end."

"However, with our expertise, we were able to overcome this. Our team is proud to have designed, built, and tested this one-of-a-kind facility, cementing India's position in the elite global hypersonic research community," he added.

Prof. Tarun Gupta, Dean, Research and Development, IIT Kanpur, said, "S2 highlights IIT Kanpur's research excellence, positioning the institute at the forefront of innovative research and opening doors to groundbreaking advancements in aerospace technology. I am pleased to acknowledge the crucial support received from ARDB and DST."

Prof. G. M. Kamath, Head, Department of Aerospace Engineering, IIT Kanpur, said, "With S2, we advance our research horizons, inspiring a new generation of aerospace enthusiasts and fostering innovation and exploration in this exciting field. Being the first in India to develop such a facility enables us to set a new benchmark for hypervelocity research in India and beyond."

S2 represents a tremendous achievement for IIT Kanpur and a major capacity boost for India's space and defence sectors. With sophisticated hypervelocity testing capabilities now available domestically, India is better positioned to develop advanced hypersonic technologies and systems.

Hypersonic research activities are fast growing in India and the implementation of Hypersonic Test Facility in India will enable more aerospace engineers and researchers to pursue hypersonic research. The research activities and data generated in the facility will serve as an input for optimization of existing vehicles as well as futuristic defense and Space Missions.

Establishment of such facility will position India globally for advanced experimental hypersonic research. It is a major capacity boost for India's space and defense sectors and puts India in a better position to develop advanced hypersonic technologies and systems fast-forwarding the Hon’ble PM’s dream of a scientifically advanced nation. 

Indian Institute of Technology Kanpur was established in 1959 and declared to be an Institute of National Importance by the Government of India through an Act of Parliament. IIT Kanpur is best known for the highest standard of education in science and engineering and for seminal R&D contributions over the years. The institute has a sprawling lush green campus spread over 1055 acres with a large pool of academic and research resources spanning across 19 departments, 25 centres and 3 interdisciplinary programs in engineering, science, design, humanities, and management disciplines with more than 570 full-time faculty members and approximately 9000 students.

For more information, visit www.iitk.ac.in.

IIT Roorkee Professor Felicitated for Outstanding Contributions Towards Developing Technology for DRDO

IIT Roorkee serve as an important center of excellence in developing technology for DRDO to address critical technological challenges

Indian Institute of Technology Roorkee (IIT Roorkee) achieves another milestone. Prof Ramesh Chandra, Institute Instrumentation Centre, IIT Roorkee was honoured at the recent DRDO-Academia Conclave organized by Defence Research and Development Organizations (DRDO) on May 25 – 26, 2023 at DRDO Bhawan New Delhi. During the event, Hon'ble Raksha Mantri Shri Rajnath Singh felicitated the Professor from IIT Roorkee for his outstanding contributions to developing technology for DRDO. Prof. Ramesh Chandra and his group designed and developed hydrophobic, optically transparent, hard and corrosion-resistant coatings to improve the service life of structural components used in the Naval submarines, which will significantly help the Indian Naval Forces.

His project titled, "Development of Corrosion Resistant Hydrophobic Coatings for the Protection of structural components under saline water applications" focuses on the development of corrosion-resistant hydrophobic coatings that will prevent degradation and improve the durability of Defence equipment in submarines, among others. He and his research team conducted extensive electrochemical and morphological studies at facilities of the institute to ensure and develop effective hydrophobic coatings with excellent corrosion resistance capabilities.

Moreover, IIT Roorkee conducts Directed Research in research verticals with the DRDO and the institute has multiple Centre of Excellence established for the purpose. Research areas include Smart Infrastructure and Hardened Structwes for Defence Application; Energy Storage Devices; Landslide, Snow and Avalanche Studies; Pulsed Laser and Specialty Fiber; Shock and Detonics; Thermal Management and other-identified verticals for critical and futuristic defence technological requirements of DRDO. IIT Roorkee also has centres for Design (Matheatical modelling and simulation of Elastomer based shock absorption system, fabrication of High Quality Nanostructured Piezoelectric Thin Films for MEMS Devices, and optimizing the number of fire detectors in crew compartment of Armoured fighting vehicles (AFVs), among others. The total number of Research Projects that IIT Roorkee had with DRDO in the last five years is 44 out of which 21 Projects are ongoing and the rest 23 are having completed status. The total number of Consultancy Projects with DRDO in the last five years is 7.

On the auspicious occasion, Prof K K Pant, Director, IIT Roorkee, congratulated Prof. Chandra and stated, "Majority of industries are inherently faced with the problem of corrosion and steps for protection of materials from corrosion has been a topic of large interest to them. The advanced coating techniques developed by Prof. Chandra and his team have the potential to benefit multiple industries such as marine, pipeline, aerospace, automobiles, chemical, biotechnology processing plants, and construction. This recognition further emphasizes the importance of their research in addressing the pressing issue of corrosion and its implications for industry and national development."

Prof Ramesh Chandra, Institute Instrumentation Centre, IIT Roorkee, highlighted, "Hydrophobic coatings have been proven to significantly increase the life span of materials prone to oxidation/corrosion, resulting in huge material and cost savings. Such advanced coatings technologies have immense market potential for various applications such as marine, pipeline, aerospace, automobiles, chemical, biotechnology processing plants, and construction industries."

The recognition bestowed upon IIT Roorkee highlights the institutes exceptional achievements and contributions to developing technology for national defense, specifically in the context of the Defence Research and Development Organizations (DRDO). By designing and developing hydrophobic coatings to enhance the service life of structural components in Naval submarines, Professor Chandra has made significant strides in improving the durability and corrosion resistance of defense equipment.

Furthermore, this recognition also sheds light on the crucial role played by academic institutions, in this case, IIT Roorkee in advancing technology for national defense and industrial development. Institutes like IIT Roorkee serve as important centers of excellence, nurturing talented individuals, conducting cutting-edge research, and collaborating with defense organizations to address critical technological challenges. Their efforts contribute not only to the defense sector but also to various industries that can benefit from advancements in materials, coatings, and related technologies.

By acknowledging Professor Ramesh Chandra's achievements and the role of IIT Roorkee, the recognition emphasizes the importance of collaboration between academia and defense organizations in driving innovation, fostering technological advancements, and ultimately strengthening the nation's defense capabilities and industrial growth. 

About IIT Roorkee (https://www.iitr.ac.in/)

IIT Roorkee is an institute of national importance imparting higher education in engineering, sciences, management, architecture and planning, and humanities and socialsciences. Since its establishment in 1847, the Institute has played a vital role in providing technical human resources and know-how to the country. 

ISRO Successfully Conducts the Reusable Launch Vehicle Autonomous Landing Mission

Indian Space agency, ISRO, along with DRDO and Indian Air Force, successfully conducted the Reusable Launch Vehicle Autonomous Landing Mission (RLV LEX). The test was conducted at the Aeronautical Test Range (ATR), Chitradurga, Karnataka in the early hours yesterday i.e. on April 2, 2023.

The RLV, which is essentially a space plane, took off at 7:10 am IST by a Chinook Helicopter of the Indian Air Force as an underslung load and flew to a height of 4.5 km (above MSL). Once the predetermined pillbox parameters were attained, based on the RLV's Mission Management Computer command, the RLV was released in mid-air, at a down range of 4.6 km. Release conditions included 10 parameters covering position, velocity, altitude and body rates, etc. The release of RLV was autonomous. RLV then performed approach and landing maneuvers using the Integrated Navigation, Guidance & control system and completed an autonomous landing on the ATR air strip at 7:40 AM IST. With that, ISRO successfully achieved the autonomous landing of a space vehicle.

RLV's autonomous approach and landing pic.twitter.com/D4tDmk5VN5

— ISRO (@isro) April 2, 2023

The autonomous landing was carried out under the exact conditions of a Space Re-entry vehicle's landing —high speed, unmanned, precise landing from the same return path— as if the vehicle arrives from space. Landing parameters such as Ground relative velocity, the sink rate of Landing Gears, and precise body rates, as might be experienced by an orbital re-entry space vehicle in its return path, were achieved.

The RLV LEX demanded several state-of-the-art technologies including accurate Navigation hardware and software, Pseudolite system, Ka-band Radar Altimeter, NavIC receiver, indigenous Landing Gear, Aerofoil honey-comb fins and brake parachute system.

In a first in the world, a winged body has been carried to an altitude of 4.5 km by a helicopter and released for carrying out an autonomous landing on a runway.

RLV is essentially a space plane with a low lift to drag ratio requiring an approach at high glide angles that necessitated a landing at high velocities of 350 kmph. LEX utilized several indigenous systems. Localized Navigation systems based on pseudolite systems, instrumentation, and sensor systems, etc. were developed by ISRO. Digital Elevation Model (DEM) of the landing site with a Ka-band Radar Altimeter provided accurate altitude information. Extensive wind tunnel tests and CFD simulations enabled aerodynamic characterization of RLV prior to the flight. Adaptation of contemporary technologies developed for RLV LEX turns other operational launch vehicles of ISRO more cost-effective.

ISRO had demonstrated the re-entry of its winged vehicle RLV-TD in the HEX missionion in May 2016. The re-entry of a hypersonic sub-orbital vehicle marked a major accomplishment in developing Reusable Launch Vehicles. In HEX, the vehicle landed on a hypothetical runway over the Bay of Bengal. Precise landing on a runway was an aspect not included in the HEX mission. The LEX mission achieved the final approach phase that coincided with the re-entry return flight path exhibiting an autonomous, high speed (350 kmph) landing.

The LEX began with an Integrated Navigation test in 2019 and followed multiple Engineering Model Trials and Captive Phase tests in subsequent years.

Along with ISRO, IAF, CEMILAC, ADE, and ADRDE contributed to this test. The IAF team hand in hand with the Project team and multiple sorties were conducted to perfect the achievement of release conditions. Dr. S Unnikrishnan Nair, Director, VSSC, and Shri Shyam Mohan N, Programme Director, ATSP guided the teams. Dr. Jayakumar M, Project Director, RLV was the Mission Director, and Shri Muthupandian J, Associate Project Director, RLV was the Vehicle Director for the mission. Shri Ramakrishna, Director, ISTRAC was present on the occasion. Chairman, ISRO/Secretary, DOS Shri S Somanath witnessed the test and congratulated the team.

With LEX, the dream of an Indian Reusable Launch Vehicle arrives one step closer to reality.

Source — ISRO

Carborundum Universal Limited Part of the 120-year-old Murugappa Group Inks Licensing Agreement for Transfer of Technology (LAToT) with DRDO’s Research Centre Imarat (RCI) Laboratory

Licensing Agreement for Transfer of Technology (ToT) handed over at Aero India 2023 in Bengaluru will enable CUMI to supply Ceramic Radomes for use in defence applications

Carborundum Universal Limited (CUMI), is a pioneering organisation in the field of material sciences and part of the 120-year-old Murugappa Group today announced that it has signed a Licensing Agreement for Transfer of Technology (LAToT) with DRDO’s Research Centre Imarat (RCI) Laboratory for technology to manufacture “Ceramic Radomes (GELCAST Process) Technology” used in missile systems.

The LAToT was handed over at AERO INDIA 2023 in Bengaluru on 15 February 2023 in the presence of Honourable Defence Minister Shri Rajnath Singh.

Ceramic Radome Technology is considered state of the art missile technology world-over. Since missiles undergo extremely high surface temperatures while traveling through the atmosphere, ceramic is considered as optimal radome material. The design of ceramic radomes for defence activities requires deep expertise and stringent testing at every stage to ensure reliability and accuracy.

Research Centre Imarat (RCI) is a premier laboratory of Dr APJ Abdul Kalam Missile Complex, DRDO spearheading R&D in a wide range of Avionics Systems for diversified defence and aerospace applications.

“It has been exciting to witness India’s growing prowess in the defence manufacturing sector, which is a major goal of the ‘Aatmanirbhar Bharat’ or ‘Make in India’ initiative. With our strong legacy of being in the material sciences industry for almost 70 years, CUMI is honoured to play a part in shaping India’s destiny by contributing to a strong and self-reliant defence sector. Our operations are completely made in India - from mineral sourcing and processing to research and testing, CUMI is completely localized with 100 percent end-to-end integration in the country,” said Subbu Venkatachalam, Head of Marketing, Carborundum Universal Limited. “We are grateful to the team at DRDO’s Research Centre Imarat Laboratory for the opportunity and look forward to a continued association.”

CUMI’s focus for the Aerospace and Defence industry has been on making a material difference to safety and protection for man and machine across terrains. CUMI ceramics design, manufacture and test for the highest standards of reliability and safety for critical situations in defence, and CUMI engineers have the acumen and ability to design and manufacture customized solutions to cater for special defence needs. CUMI’s lightweight ceramic ballistic solutions engineered with Alumina, Zirconia-Toughened Alumina and Silicon Carbide, are ergonomic and customisable into various sizes and shapes for use in bulletproof vests. CUMI’s high-performance lightweight ceramic materials enable the highest levels of ballistic and blast-proof protection for armoured vehicles.

In addition, CUMI is one of the first companies to produce the ‘wonder material’ graphene for aerospace & defence applications in India. CUMI also brings cutting-edge composite technology for unmanned aerial vehicles (UAVs) including CFRP tubes, panels, and customised composite structural parts for drones. 

About Research Centre Imarat (RCI)

Research Centre Imarat (RCI) is a premier laboratory of Dr APJ Abdul Kalam Missile Complex, DRDO spearheading R&D in a wide range of Avionics Systems for diversified defence and aerospace applications.

RCI is entrusted with the responsibility of carrying out research and development in the technologies of Control Engineering, Inertial Navigation, Imaging Infrared seekers, RF Seekers & Systems, On-board Computers and Mission Software. RCI has established state-of-the-art test facilities including Hardware-in-Loop Simulation, Environmental Test facilities and Electro-Magnetic Interference/Compatibility/Pulse (EMI/EMC/EMP) facilities and System Integration facilities supported by a strong Reliability and Quality Assurance team. Over the last three decades, RCI has pioneered the development of many advanced technologies and has grown into a major aerospace laboratory.

About Carborundum Universal Limited

Carborundum Universal Limited (CUMI), established as a tripartite joint venture in 1954, is a leading materials sciences engineering solutions provider. CUMI’s consolidated revenue is Rs. 3300 crores and PAT of Rs. 333 crores for the financial year 2022. CUMI, part of the 120-year-old Murugappa Group, is listed on the NSE and BSE. CUMI is a Mines to Market Company whose integrated operations include mining, power generation, fusion, manufacturing, marketing and distribution. CUMI has over 5,500 employees worldwide who collaborate, innovate and develop high-quality material solutions and world-class services in abrasives, electro minerals, ceramics, refractories and energy storage materials, serving customers in diverse industries including engineering, fabrication, auto and auto components, infrastructure, steel, glass, power generation and distribution, mining and aerospace. CUMI has a wide geographical presence spanning six continents and exports products to over 50 countries.

IIT Hyderabad Inks MoU with DRDO for DRDO Industry Academia (DIA) Center of Excellence

• 7 unique & multidisciplinary domains to collaborate on A Centre for Additive Manufacturing is also a part of CoE. 
• Centre will facilitate and undertake multidisciplinary directed basic and applied for defence and strategic needs.
• DIA-CoE will be based out of IITH Campus
• It will also engage other academic institutions, technology centres, start-ups and industries in the country.

DRDO Cell was established in IIT Hyderabad (IITH) in 2020-21, which was working as a satellite Centre for the RIC Chennai (IIT Madras Research park). The then Director of the RIC, Dr Natrajan, took the initiative to contact various Defence Laboratories in and around Hyderabad, collate the problem statements, and share them among IITH faculty members through the then Dean (R&D) Prof Sumohana, IITH, and that's how the ball started rolling in 2019-20. IITH Faculty and several DRDO Scientists put tireless efforts in first drafting the proposals to cater to the exact requirement of the Defense, and many proposals in varied areas ranging from Additive manufacturing to sensors design, Artificial intelligence to Space technologies were submitted, and 13 proposals worth of several Crores were sanctioned at the rocket speed.

Dr Samir V Kamat (L) & Prof B S Murty (R) during the MoU Exchange

Understanding the importance of Additive Manufacturing to the Defence, one Centre for Additive Manufacturing was also proposed where faculty from various departments, from Mechanical to Materials science and Metallurgical Engineering, Biomedical to Electrical Engineering, participated. The currently sanctioned DIA COE will take this initiative to a higher level and enable IITH, DRDO, and Industry to contribute to nation-building.

Dr Samir V Kamat, Chairman DRDO & Secretary DDR&D, exchanged MoU with Prof B S Murty, Director, IITH, for setting up the DRDO Industry Academia Center of Excellence at IIT Hyderabad in the presence of Hon'ble Raksha Mantri Shri RajnathSingh during the largest Defence exhibition and conference DefExpo22, Gandhinagar on October 20, 2022.

Expressing his delight on this milestone, Prof B S Murty, Director, IITH, “Country’s defence is not only the responsibility of those who fight the battle on the border but also every Indian, who can be a significant contributor in their own way. IITH is committed to serving humanity through invention & Innovation in technology; DIA-CoE is another indication of the high Innovation Quotient we are known for. IITH is among a few IITs that has been trusted for its capabilities and adored this unique opportunity to serve the nation profoundly”.

The DIA CoE will work on the following broad domains:

• Ultra High-Temperature Materials for Hypersonic Vehicles
• Artificial Intelligence for Missile and Missile Defence
• Technologies for Space application
• Adaptive Imaging and Image Processing
• Nanoornithocopter technologies
• Seeker and Homing Technologies
• Additive Manufacturing

About IIT Hyderabad

Indian Institute of Technology Hyderabad (IITH) is one of the eight new IITs established by the Government of India in 2008. In a short span of 14 years, the institute has become a top-ranker. It has 290+ full-time faculty, ~3,800 students, 18 Departments + Centre for Interdisciplinary Program, nearly 200+ state-of-the-art laboratories, and five research and entrepreneurship centers. The institute has a strong research focus with approx. Rs 535+ crore of sanctioned research funding, with PhD scholars accounting for about 30% of total student strength. IITH has more than 7,500+ research publications with 1,00,000+ Citations, 190+ Published Patents, 1,700+ sponsored/consultancy projects with 500+ running projects, and about 100+ startups.

To know more, please visit https://www.iith.ac.in/.

Pvt Industry Can Access Govt Test Systems and Facilities for Strengthening Indian Defence Industries: DRDO Chairman

DRDO has facilitated access to more than 1000 patents with nil royalty.

SKM Technologies opens its state of the art 70,000 sft new facility at Aerospace Park in Adibatla

SKM Technologies Pvt Ltd, industry partner of DRDO involved in manufacturing of Aerospace and Defence components inaugurated its state-of-the-art 70,000 sft advanced facility at Aerospace Park, Adibatla, Hyderabad on Thursday.

The facility was inaugurated by Dr G Satheesh Reddy, Secretary, Department of Defence R&D and Chairman, DRDO in the presence of distinguished guests from DRDO and Industry.

DRDO Chairman G. Satheesh Reddy seen inaugurating the new falicity of SKM Technologies at Aadibatla

 
SKM Technologies Pvt. Ltd, is a leading world class manufacturer of high precision components and assemblies for some of the reputed companies in India and abroad such as Rafael, Pratt & Whitney, Dedienne Aerospace, Dassault Aviation, Magellan Aerospace Corporation, Nuclear Fuel Complex, Hindustan Aeronautics Ltd, DRDO, BDL and among many others.

Newly inaugurated facility of SKM Technologies at Aadibatla

Newly inaugurated facility of SKM Technologies at Aadibatla

Addressing the inaugural function, Dr G Satheesh Reddy, Chairman DRDO said that there are huge opportunities for the private industries in defence sector. He emphasized that Private industry can access government test systems and facilities and for strengthening Indian defence industries, DRDO has facilitated access to more than 1000 patents with nil royalty.

Defence export has huge potential for our country and in the coming years, will set new benchmarks and boost the resolve of Make in India and Make for the World. Government of India has released positive indigenization lists and imposed ban on import of several defence items to support indigenous developments. India is now trying to shift its status from being one of the largest importers of defence products to one of the top exporters of defence items. We have been receiving interests for export of our Defence products and besides BrahMos missile, we are looking to export Akash, ATGMs, SAMs, Torpedoes and Radars.

This will give a boost to indigenization efforts with active participation of companies like SKM Technologies Pvt. Ltd and other public and private sectors for fulfilling twin objectives of achieving self-reliance & promoting defence exports. We will support SKM Technologies and other industry partners and handhold them. Dr Reddy also advised SKM Technology Private Ltd to consider foraying into Additive Manufacturing as they have expertise and infrastructure in place and can produce many new components and systems.

Shri GR Surya Raj, Chairman of SKM Technologies Pvt Ltd, said since SKM Technologies which we acquired already existed in Aerospace Park, made our efforts faster and easier in foraying and establishing firm foothold. Our desire is to be part of the Make in India program.

Welcoming the gathering, Ms Sarita Rathibandla, a US returned to head as MD of SKM Technologies Pvt Ltd said that the company SKM Technologies strongly believes in making a contribution for a self-reliant India in the world of Research and Defence Technologies. This is our first step.

Saritha Rathibandla, MD, SKM Technologies Pvt Ltd.

We have partnered with BDL for indigenous missiles like Akash, QRSAM and many others which are under R & D. We are also working with HAL in various locations. We have added many high technology, high precision machinery at this plant. Currently we have 5-Axis, 4-Axis, 3-Axis VMCs, HMC turning machining centres of various sizes as large as 5 metres bed size that can accommodate jobs upto 8 meters and we have a Carl Zeiss CMM that can measure an accuracy of 0.7 microns. And we plan to expand as per the demand, Ms Sarita shared.

My father Shri GR Surya Raj, Chairman of Dynamic Tools Pvt Ltd, a company with INR 100 crore turnover, 600 employees with 60, 000 state of the art across the globe facility was looking forward to expand in Aerospace and Defence. That is when we found SKM Technologies which was struggling financially. We took over it and revived it. The newly inaugurated SKM Technologies facility has 70,000 sft built up area with 1000 class clean rooms. This will not only accommodate manufacturing, but also carry out critical Assembly operations, provide services such as specialised welding and special treatment processes.

Dr BHVS Narayana Murthy, Director General, Missiles & Strategic Systems, Shri Gowri Shankar, Director (Finance), MIDHANI; Praveen PA, Director (Aerospace & Defence), Govt of Telangana, Dr Avinash Chander, Former DRDO chief and others graced the inaugural function.

DRDO and AICTE Launch Regular M. Tech Program in Defence Technologies

A regular M.Tech. Program in Defence Technology has been launched by Defence Research and Development Organisation (DRDO) and All India Council for Technical Education (AICTE) to impart necessary theoretical & experimental knowledge, skill and aptitude in various defence technology areas. Secretary Department of Defence R&D & Chairman DRDODr G Satheesh Reddy and Chairman AICTE Prof Anil D Sahasrabudhe launched the program during a virtual event organised by AICTE, New Delhi on July 08, 2021. 

The program will motivate the aspiring engineers to start their career in defence technology.

This M.Tech. defence technology program can be conducted at any AICTE affiliated Institutes/Universities, IITs, NITs or private engineering institutes.Institute of Defence Scientists & Technologists (IDST) will provide support to the institutes for conducting this program, which can be conducted in online as well as offline formats. 

The new M.Tech. program has 6 specialized streams - 

1. Combat Technology, 
2. Aero Technology, 
3. Naval Technology, 
4. Communication Systems & Sensors, 
5. Directed Energy Technology
6. High Energy Materials Technology. 

The students will also be provided opportunities to conduct their main thesis work in DRDO laboratories, Defence PSUs & Industries. The program will be helpful to students seeking opportunities in ever expanding defence research and manufacturing sector.

Defence minister Mr. Rajnath Singh has congratulated DRDO, AICTE & Industries for starting a Post Graduate Program in Defence Technology. He said the program will help in achieving ‘AatmaNirbhar Bharat’ envisioned by Prime Minister Shri Narendra Modi.

In his address, Dr G Satheesh Reddy congratulated DRDO, AICTE and industries for evolving the PG program. He expressed hope that such a specialized program will enable the creation of a large pool of talented workforce for defence sector. He called upon the industry leaders to extend their support for this program and offer opportunities to the students.

Prof Anil D Sahasrabudhe expressed happiness over the launch of the program and said it will not only generate skilled manpower pool in defence technology, but will also create spin-off benefits in terms of new defence startups and entrepreneurs. He emphasized that research should be connected with day-to-day life as it is fundamental for human psyche.

Chairman & Managing Director, Bharat Forge Limited Shri Babasaheb Neelkanth Kalyani congratulated DRDO and AICTE for initiating this program and highlighted its importance for creation of talent pool for defence technology with know-how and know-why capability to fulfil the vision of ‘AatmaNirbhar Bharat’.

DRDO Conducted Trial of 5th Generation Python-5 Air-to-Air Missile

Tejas, India's indigenous Light Combat Aircraft, added the 5th generation Python-5 Air-to-Air Missile (AAM) in its air-to-air weapons capability on April 27, 2021. Trials were also aimed to validate enhanced capability of already integrated Derby Beyond Visual Range (BVR) AAM on Tejas. The test firing at Goa completed a series of missile trials to validate its performance under extremely challenging scenarios. Derby missile achieved direct hit on a high-speed maneuvering aerial target and the Python missiles also achieved 100% hits, thereby validating their complete capability. The trials met all their planned objectives.

Prior to these trials, extensive missile carriage flight tests were conducted at Bengaluru to assess integration of the missile with aircraft systems on board the Tejas, like Avionics, Fire-control radar, Missile Weapon Delivery System and the Flight Control System. At Goa, after successful separation trials, live launch of the missile on a Banshee target was carried out. Python-5 missile live firing was conducted to validate target engagement from all aspects as well as beyond visual ranges. In all the live firings, missile hit the aerial target.

The missiles were fired from Tejas aircraft of Aeronautical Development Agency (ADA) flown by Indian Air Force (IAF) Test pilots belonging to National Flight Test Centre (NFTC). The successful conduct was made possible with years of hard work by the team of scientists, engineers and technicians from ADA and HAL-ARDC along with admirable support from CEMILAC, DG-AQA, IAF PMT, NPO (LCA Navy) and INS HANSA.

Raksha Mantri Shri Rajnath Singh has congratulated the teams of DRDO, ADA, Indian Air Force, HAL and all involved in the trial. Secretary Department of Defence R&D and Chairman DRDO Dr G Satheesh Reddy appreciated the efforts of scientists, engineers and technicians from various organisations and industry.