ISM 2.0 will support setting up of facility for chemicals, gases, equipment manufacturing in India: Senior MeitY official
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Context
At a recent Deep Tech Summit organized in Chennai, a senior official from the outlined the strategic direction and future roadmap for the 2.0. The next phase will heavily focus on creating a robust domestic ecosystem for manufacturing specialty chemicals, industrial gases, raw materials, and complex semiconductor equipment. This policy evolution marks a decisive strategic shift from merely establishing chip fabrication and packaging units toward building a self-reliant, full-stack supply chain capable of supporting India's long-term electronic manufacturing ambitions.
UPSC Perspectives
Economic
The evolution from the first phase of the to its 2.0 version reflects a maturing strategy in industrial policy. While the initial ₹76,000 crore outlay successfully attracted investments in fabrication and Assembly, Testing, Marking, and Packaging (ATMP) facilities, it left the upstream supply chain completely dependent on foreign imports. ISM 2.0 targets this structural vulnerability by incentivizing the domestic production of crucial raw materials like industrial gases, specialty chemicals, and semiconductor-grade silicon wafers. This upstream integration is further supported by the , which saw its financial outlay significantly increased to ₹40,000 crore in the recent budget to capitalize on the momentum. By localizing the sourcing of these foundational materials, India aims to reduce its vulnerability to geopolitical supply chain shocks, such as export controls or trade wars. Furthermore, an integrated supply chain lowers the overall cost of production and enhances export competitiveness. For UPSC Mains, understanding this transition from downstream assembly to holistic value-chain capture is crucial when analyzing India's long-term manufacturing competitiveness and import substitution strategies.
Science & Technology
Semiconductor manufacturing is one of the most complex engineering processes in the world, heavily reliant on advanced materials science and precision engineering. The push for domestic equipment and chemical manufacturing under ISM 2.0 addresses the deep tech nature of the industry, which requires massive capital investments for specialized testing, clean rooms, and lab infrastructure. A key technical concept highlighted in the policy discourse is Six Sigma manufacturing, a highly rigorous statistical quality-control methodology aimed at optimizing processes and reducing defects to near perfection. In semiconductor fabrication, this quality control is quantitatively measured by yield—the percentage of working chips successfully produced on a single wafer. Achieving a high yield is directly proportional to a plant's commercial viability and the market reliability of its electronic components. By funding targeted R&D, establishing testing facilities, and incentivizing indigenous Intellectual Property (IP) generation, the government aims to build capabilities in complex design architectures. This structural shift elevates India from being a mere consumer of digital hardware to becoming a sophisticated creator of core technological assets.
Governance
Building a globally competitive semiconductor ecosystem requires a comprehensive whole-of-government approach where the state acts as an active enabler and co-creator rather than just a passive regulator. Operating as a specialized and independent division under the , the mission mandates tight coordination between central ministries, state governments, academia, and private industry. The government is currently focusing heavily on creating state-of-the-art Centers of Excellence to bridge the traditional gap between academic research and commercial industrial applications. Skilling the workforce is identified as a primary thrust area, recognizing that high-tech manufacturing cannot thrive without a steady pipeline of specialized human capital, including material scientists and chemical engineers. This collaborative, platform-based framework allows the private industry to find real-time technological solutions to complex engineering bottlenecks they face in their production lines. Ultimately, this synergy between proactive state support and private sector innovation serves as the fundamental bedrock for achieving the broader national vision of in critical and emerging technologies.