Could you give us an overview of Garuda Aerospace, its journey and role in India’s unmanned systems manufacturing ecosystem?

Garuda Aerospace was founded with a vision to make drone technology accessible, scalable, and relevant to India’s evolving needs. Over the years, we have grown from a drone technology startup into an integrated unmanned systems company, developing solutions across agriculture, defence, infrastructure, disaster management, and other critical sectors.

Our journey has been driven by a focus on indigenous innovation, technology development, and building capabilities across the drone value chain. Today, we are working towards strengthening India’s unmanned systems ecosystem through investments in research and development, advanced manufacturing, and partnerships with industry and technology leaders.

As India places greater emphasis on self-reliance and the development of advanced aerospace and defence capabilities, we believe companies like Garuda Aerospace have an important role to play. Our focus is on designing, developing, and manufacturing reliable drone platforms and solutions that address real-world requirements while contributing to the growth of India’s domestic unmanned systems industry.

What manufacturing capabilities, engineering expertise and processes are essential for developing aerospace-grade systems?

Developing aerospace-grade systems requires expertise in aerodynamics, structural design, avionics, propulsion, flight control systems, and systems integration. These capabilities must be supported by precision manufacturing, advanced materials, and skilled engineering teams.

Equally important are rigorous testing, quality control, component traceability, and validation at every stage of development. From prototyping to final assembly, consistent processes and compliance with applicable aerospace and safety standards are essential to ensure reliability and performance.

How do you see India’s aerospace and avionics sector evolving over the next decade, particularly in design, manufacturing and localisation?

India’s aerospace and avionics sector is likely to see greater emphasis on indigenous design, manufacturing, and technology development over the next decade. Defence modernisation, rising demand for unmanned systems, and the expansion of commercial aviation will create opportunities across the aerospace value chain.

The focus will increasingly be on developing domestic capabilities in advanced materials, avionics, propulsion, electronics, and precision manufacturing. Building a reliable supplier ecosystem, investing in research and development, and strengthening testing and certification infrastructure will be important to support this growth.

For India to become a competitive aerospace manufacturing hub, sustained investment in technology, skilled talent, and infrastructure will be essential. Greater collaboration between industry, startups, research institutions, and government agencies can help strengthen domestic capabilities and support the sector’s long-term development.

What key technology trends are shaping avionics manufacturing, and how are they influencing system design and performance?

The major trends include the integration of AI and machine learning, advanced sensors, high-performance embedded computing, secure connectivity, digital engineering, and more modular avionics architectures. These technologies are enabling aerospace systems to process more data in real time, improve situational awareness, and support greater levels of automation and autonomy.

At the same time, cybersecurity, reliability, and safety assurance are becoming increasingly important as aerospace systems become more connected and software-driven. The shift towards integrated and modular architectures is also making systems easier to upgrade and integrate with new technologies.

For manufacturers, this means system design is moving towards greater computing capability, interoperability, security, and software-defined functionality, while maintaining the stringent safety and reliability requirements of aerospace applications.

What are the biggest challenges in building a robust domestic aerospace supply chain, and how can India address them?

The key challenges are developing specialised components and technologies domestically, building a reliable supplier base, and ensuring that local manufacturers can consistently meet the quality, certification, and scale requirements of the aerospace industry. Aerospace also requires significant investment in R&D, testing infrastructure, advanced manufacturing capabilities, and skilled talent.

Addressing these challenges will require closer collaboration between industry, government, research institutions, and technology providers. Greater focus on indigenous design and development, support for MSMEs and component manufacturers, investment in testing and certification infrastructure, and long-term demand visibility can help companies build capabilities and scale them. India’s ongoing indigenisation initiatives are already creating a framework for developing a deeper domestic supply chain.

How are automation, additive manufacturing, composites, digital twins and precision engineering transforming aerospace manufacturing?

These technologies are making aerospace manufacturing more precise, flexible, and efficient. Automation can improve consistency and reduce manual errors, while additive manufacturing enables the production of complex components and faster prototyping. Composites can help reduce weight while maintaining the required structural performance.

Digital twins and digital engineering allow manufacturers to simulate, test, and optimise components and systems before physical production, helping reduce development time and costs. Precision engineering and advanced quality-control systems further improve consistency and reliability.

Together, these technologies can shorten development cycles, improve resource efficiency, and enable manufacturers to develop more complex systems at greater scale. For India, wider adoption can also help domestic manufacturers become more competitive in global aerospace supply chains.

Which aerospace segments offer the biggest manufacturing opportunities for Indian companies and SMEs across defence, space, commercial aviation and unmanned systems?

I see significant opportunities across defence systems, unmanned platforms, space systems, and the growing commercial aerospace supply chain. Defence and unmanned systems are likely to see continued demand as India expands its focus on modernisation and indigenous capability development. The growth of the space sector is also opening opportunities for private companies across components, subsystems, electronics, and manufacturing.

For Indian SMEs, the opportunity is particularly strong in specialised components, electronics, avionics, precision engineering, composites, propulsion-related systems, and other subsystems. Rather than focusing only on complete platforms, building capabilities across the aerospace supply chain can allow more Indian companies to participate in both domestic and global markets.

What capabilities must Indian manufacturers build to compete globally and move from manufacturing and sourcing to developing and exporting aerospace technologies?

India’s position will depend on its ability to build strong capabilities across design, engineering, manufacturing, testing, and certification. Cost competitiveness will remain important, but global aerospace markets also require consistent quality, reliability, traceability, and adherence to international standards.

Indian manufacturers will need to invest in R&D, advanced manufacturing, skilled talent, supply-chain capabilities, and technologies such as avionics, embedded systems, composites, and precision engineering. Developing a reliable domestic supplier ecosystem and building products that meet global certification and quality requirements will also be critical. 

Ultimately, India’s competitiveness will depend on moving from being primarily a manufacturing and sourcing base to developing and exporting aerospace technologies, components, and complete systems.