By Sagar k., Researcher, NITISARA

Introduction

The global clean energy supply chain is undergoing a historic realignment as nations compete to secure access to critical minerals, advanced technologies, and resilient logistics networks. For India, this transition represents both a strategic opportunity and a structural challenge. The country has already installed ~190 GW of renewable capacity as of 2025, accounting for over 42% of its total power generation mix (Central Electricity Authority, 2025). Solar and wind alone are expected to contribute ~280 GW by 2030, supported by $250 billion in projected green energy investments. However, achieving this at scale requires strengthening domestic manufacturing of solar cells, wind turbine components, electrolyzers, and EV batteries, while developing efficient green logistics corridors and sustainable procurement systems.

India’s clean energy ecosystem is evolving rapidly: Adani Solar, Tata Power Solar, and Waaree Energies are expanding module manufacturing capacities beyond 40 GW annually, while wind majors such as Suzlon and Siemens Gamesa India are localizing key components like nacelles and blades. The National Green Hydrogen Mission aims to produce 5 MMT of green hydrogen annually by 2030, with integrated value chains for electrolyzer production, ammonia logistics, and hydrogen hubs across Gujarat, Tamil Nadu, and Odisha. Yet, supply chain bottlenecks—ranging from critical mineral access (lithium, nickel, cobalt) to renewable component logistics—pose systemic risks.

As India positions itself as a clean energy manufacturing hub, the focus must extend beyond generation capacity to supply chain sustainability—ensuring low-carbon sourcing, circular material use, and transparent traceability from raw material to energy output. Building resilient and ethical clean energy supply chains will be the cornerstone of India’s journey toward becoming a global leader in renewable energy trade and sustainable infrastructure.

Strengthening Domestic Manufacturing and Localization of Clean Energy Components

India’s clean energy growth depends heavily on domestic value chain localization—from component manufacturing to logistics and recycling. Despite being the world’s third-largest renewable energy market, the country continues to rely on imports for ~80% of solar PV cells, ~60% of lithium-ion batteries, and a significant share of wind turbine components. To address this, the Production Linked Incentive (PLI) Schemes—with allocations exceeding ₹25,000 crore for solar, ₹18,100 crore for advanced chemistry cells, and ₹19,744 crore for green hydrogen—are catalyzing backward integration. Companies like Reliance New Energy, Adani New Industries, and Ola Electric are setting up gigafactories and integrated renewable parks to enhance domestic capacity and reduce supply chain vulnerabilities. Additionally, the Make in India 2.0 and Atmanirbhar Bharat missions are promoting co-location of manufacturing clusters and renewable industrial corridors, ensuring shorter logistics loops and improved energy efficiency.

Enabling Resilient and Sustainable Renewable Energy Logistics

The success of India’s clean energy transition hinges on building efficient renewable energy logistics networks—a critical yet often overlooked component of the green supply chain. The National Logistics Policy (2022), coupled with the Gati Shakti master plan, is driving the creation of dedicated renewable energy corridors, connecting solar and wind clusters with ports, industrial parks, and hydrogen hubs. These corridors are expected to reduce logistics costs from 14% to under 9% of GDP by 2030, boosting India’s clean tech export competitiveness. Meanwhile, the adoption of AI-powered logistics optimization, blockchain-based traceability, and IoT-enabled fleet monitoring is enhancing the efficiency and carbon accounting of renewable material movement. In parallel, the Circular Energy Systems approach—promoting reuse of rare metals, recycling of PV waste, and repurposing of EV batteries—is being integrated into supply chain policy frameworks to ensure sustainability and minimise waste.

SegmentCurrent Installed / Manufacturing Capacity (2025)2030 Target / Projected CapacityEmerging Technologies & Focus Areas
Solar PV Modules40 GW (domestic manufacturing)100 GW manufacturing; 280 GW installedHeterojunction (HJT) cells, perovskite PV, solar glass recycling
Wind Energy45 GW installed140 GW installedOffshore wind turbines, hybrid onshore-offshore systems, advanced blade composites
Green HydrogenPilot-scale (75,000 TPA)5 MMT annual productionPEM & SOEC electrolyzers, hydrogen storage materials, ammonia logistics
EV Batteries10 GWh operational50 GWh domestic capacitySolid-state batteries, lithium-iron-phosphate (LFP), sodium-ion batteries
Bioenergy (Biogas/Bioethanol)10 MMT (bio-CNG and ethanol blend)30 MMT (20% ethanol blending)2G/3G biofuels, algae-based fuels, carbon-negative biogas plants
Grid Storage & Smart Systems5 GWh grid storage30 GWh grid-scale battery and pumped hydroAI-based energy management, blockchain for peer-to-peer trading
Hydropower51 GW operational70 GW installedSmall hydro automation, hybrid hydro-solar systems
Transmission & RE LogisticsGreen Energy Corridor – 20,000 circuit km60,000 circuit km by 2030Smart grid tech, predictive analytics, EV-based freight systems

Deconstructing renewable energy supply chains in India

Deconstructing India’s renewable energy (RE) supply chains involves understanding the complexities of sourcing, manufacturing, and logistics for technologies like solar, wind, and battery storage. A key focus is on localization to reduce reliance on imports, particularly from China, and to build a more resilient and competitive domestic industry. This includes addressing challenges in critical mineral supply, manufacturing capacity, and skilled labor shortages. Key aspects:

  • Diversification of Sources: India is working to diversify its supply chains for critical minerals and components, moving away from dependence on a few key countries. This includes exploring domestic resources, fostering international partnerships, and encouraging recycling and circular economy practices. 
  • Localization of Manufacturing: A significant push is underway to increase domestic manufacturing of renewable energy equipment, such as solar panels, wind turbines, and batteries, to reduce import dependence and create jobs. 
  • Addressing Critical Mineral Security: India is actively working to secure access to critical minerals like lithium, nickel, and cobalt, which are essential for battery storage and other renewable energy technologies. This involves exploring domestic reserves, promoting international collaboration, and encouraging recycling initiatives. 
  • Developing Logistics and Installation Capacities: Building sufficient capacity for logistics and installation of renewable energy projects is crucial. This includes ensuring availability of skilled labor, specialized equipment like offshore wind turbine installation vessels, and efficient transportation infrastructure. 
  • Promoting a Circular Economy: Adopting circular economy principles, such as recycling and material reuse, is essential for sustainable management of renewable energy technologies and reducing reliance on virgin materials. 
  • Addressing Supply Chain Disruptions: India is working to mitigate the impact of potential supply chain disruptions due to geopolitical factors, natural disasters, or unexpected events by diversifying suppliers, building inventory, and promoting domestic manufacturing. 
  • Government Support and Incentives: Government policies and incentives, such as Production Linked Incentive (PLI) schemes, are playing a vital role in supporting the growth of domestic renewable energy manufacturing. 
  • International Collaboration: India is actively engaged in international partnerships and collaborations to strengthen its renewable energy supply chains, share best practices, and promote global cooperation. 

By addressing these challenges and leveraging its strengths, India can build resilient and competitive renewable energy supply chains, contributing to its ambitious renewable energy targets and playing a significant role in the global energy transition. Challenges:

  • Dependence on Imports: India still relies heavily on imports for key components like solar modules and lithium-ion batteries, particularly from China. 
  • Limited Domestic Manufacturing Capacity: The domestic manufacturing capacity for certain renewable energy technologies and components needs further development to meet the growing demand. 
  • Shortages of Skilled Labor: The renewable energy sector faces a shortage of skilled professionals, impacting project development and implementation. 
  • Infrastructure Gaps: Challenges remain in developing adequate infrastructure, including transportation and grid integration, to support the large-scale deployment of renewable energy. 
  • Competition from China: Indian manufacturers face competition from established players in China, particularly in areas like solar module manufacturing. 
  • Volatility in Raw Material Prices: Fluctuations in the prices of raw materials like steel, copper, and aluminum can impact the cost and profitability of renewable energy projects. 

The Path Toward Clean Energy Supply Chain Resilience

India’s next phase of growth in the clean energy ecosystem depends on strengthening upstream and downstream supply chain linkages. A resilient system demands not just localized manufacturing, but also secure access to critical minerals (lithium, nickel, cobalt, copper), which are essential for solar, battery, and hydrogen technologies. India’s recent partnerships with Australia, Chile, and the DRC under the Critical Minerals Alliance aim to diversify sourcing and mitigate geopolitical risks. Furthermore, establishing recycling ecosystems and urban mining initiatives could enable India to recover over $4 billion worth of renewable material value annually by 2035, creating circularity within clean tech industries.

In parallel, policy coherence, digital governance, and international collaboration will define the road ahead. The integration of carbon border adjustment mechanisms (CBAMs), ESG-aligned export certification, and traceable green trade protocols is transforming how clean energy products are sourced, verified, and traded globally. India’s ability to align domestic supply chain reforms with global sustainability standards will determine its position as a net exporter of clean energy technologies. By building responsible, circular, and transparent clean energy supply chains, India can not only meet its climate commitments but also emerge as a resilient green manufacturing powerhouse—anchoring the world’s energy transition with sustainability and scale.


he views expressed do not represent the company’s position on the matter.. Stay informed through the Nitisara Platform and Blogs, and adapt to emerging trends that are poised to thrive in the competitive global marketplace.- https://nitisara.org/category/blogs-updates/.

What is a Bill of Lading?

In the dynamic realm of international trade, the ‘bill of lading’ holds a pivotal role in ensuring the smooth transportation…
Read More
What is a Bill of Lading?

Your Complete Guide to India’s Export Incentives: From Tax Refunds to Zero-Duty Imports

Your Complete Guide to India’s Export Incentives: From Tax Refunds to Zero-Duty Imports
Read More
Your Complete Guide to India’s Export Incentives: From Tax Refunds to Zero-Duty Imports

Deep-dive into Clean Energy Supply Chains: Case of India

Deep-dive into Clean Energy Supply Chains: Case of India
Read More
Deep-dive into Clean Energy Supply Chains: Case of India

How to approach Customs Clearances after vessel arrival?

How to approach Customs Clearances after vessel arrival?
Read More
How to approach Customs Clearances after vessel arrival?

Responsible Procurement for Building a Circular Infra Sector

Responsible Procurement for Building a Circular Infra Sector
Read More
Responsible Procurement for Building a Circular Infra Sector

Strategies to align with for Decarbonising Initiatives in the Logistics Industry: 2030

Strategies to align with for Decarbonising Initiatives in the Logistics Industry: 2030
Read More
Strategies to align with for Decarbonising Initiatives in the Logistics Industry: 2030

Critical Role of Data Flows in Supply Chains: Enabling Global Trade

Critical Role of Data Flows in Supply Chains: Enabling Global Trade
Read More
Critical Role of Data Flows in Supply Chains: Enabling Global Trade

Alternative Fuels in Shipping and Operating Vessels

Alternative Fuels in Shipping and Operating Vessels
Read More
Alternative Fuels in Shipping and Operating Vessels

How to Use Incoterms the Right Way? Avoiding Common Trade Mistakes

How to Use Incoterms the Right Way? Avoiding Common Trade Mistakes
Read More
How to Use Incoterms the Right Way? Avoiding Common Trade Mistakes

How EXIM Buyers and Sellers Can Avoid Disputes? Building Trust in Global Trade

A Guide for Shipping Operations: Maritime Value Chain
Read More
How EXIM Buyers and Sellers Can Avoid Disputes? Building Trust in Global Trade

Global Procurement of critical medical equipment

Global Procurement of critical medical equipment
Read More
Global Procurement of critical medical equipment