Brief Context
Context India’s renewable energy sector is moving from rapid expansion to building a strong, stable, and resilient system to support its 500 GW non-fossil capacity target by 2030. About In the past decade, India’s installed renewable capacity (excluding large hydro) rose from under ~35 GW in 2014 to over ~197 GW today. India continues to add 15–25 GW of new renewable capacity annually — a rate that remains among the fastest in the world.
Source Content
Syllabus: GS3/Renewable Energy
Context
- India’s renewable energy sector is moving from rapid expansion to building a strong, stable, and resilient system to support its 500 GW non-fossil capacity target by 2030.
About
- In the past decade, India’s installed renewable capacity (excluding large hydro) rose from under ~35 GW in 2014 to over ~197 GW today.
- India continues to add 15–25 GW of new renewable capacity annually — a rate that remains among the fastest in the world.
- The current focus is “capacity absorption” rather than just “capacity addition” — i.e., making sure renewables can be smoothly integrated into grid, market and system architecture.
Capacity Building in Renewable Energy
- Capacity building in renewable energy refers to the process of developing the skills, knowledge, infrastructure, institutions, and systems necessary to plan, deploy, operate, and maintain renewable energy technologies effectively.
- It ensures that human resources, technical capabilities, and institutional frameworks are equipped to support the rapid transition to clean energy.
Need for the Capacity Building
- Grid Integration: As renewable share rises, grid operators need skills and systems to manage variability and intermittency from solar and wind sources.
- Technical Expertise: Skilled manpower is essential for design, installation, and maintenance of advanced technologies like battery storage, offshore wind, and hybrid projects.
- Institutional Strengthening: State and central agencies require capacity to plan, regulate, and implement large-scale renewable and transmission projects efficiently.
- Local Manufacturing Ecosystem: Building technical and managerial capacity supports domestic production reducing import dependence.
- Policy and Regulatory Capacity: Continuous upskilling helps policymakers and regulators adapt to evolving markets.
- Community & Workforce Engagement: Local capacity building ensures job creation, social acceptance, and effective participation in the energy transition.
Challenges
- Skill Gap: Shortage of trained engineers, technicians, and project managers for advanced renewable technologies like offshore wind, battery storage, and hybrid projects.
- Limited Training Infrastructure: Few institutions offer specialised courses; existing technical institutes often lack up-to-date labs, equipment, and faculty expertise.
- Rapid Technological Change: Fast-evolving technologies in storage, smart grids, and green hydrogen require continuous upskilling, making training programs quickly obsolete.
- Coordination Across Agencies: Capacity building requires alignment among central ministries, state agencies, private sector, and academia, which is often fragmented.
- Financial Constraints: Funding for training programs, research, and skill development initiatives is limited, especially for smaller states.
- Retention of Skilled Workforce: Trained personnel move to other sectors or abroad reduces the impact of capacity-building efforts.
Government Initiatives
- Grid Integration Plan: India’s grid is being reimagined through the ₹2.4 lakh crore Transmission Plan for 500 GW, linking renewable-rich states with demand centres.
- The Government is prioritizing investment in transmission infrastructure through the Green Energy Corridors and new high-capacity transmission lines from Rajasthan, Gujarat, and Ladakh.
- While these projects are multi-year efforts, once operational they will unlock over 200 GW of new renewable capacity.
- Vision till 2032: Government has already planned for building High-Voltage Direct Current (HVDC) corridors and boosting inter-regional transmission capacity from 120 GW today to 143 GW by 2027, and 168 GW by 2032.
- Incentives: Domestic manufacturing, incentivised through the Production-Linked Incentive (PLI) scheme, Domestic Content Requirement, imposition of duties, and duty exemptions for capital equipment, is reducing import dependency.
- National Institute of Solar Energy (NISE): Offers training programs, workshops, and research support for solar PV, solar thermal, and hybrid technologies.
- Capacity Building for State Nodal Agencies (SNAs): Training and technical support to state renewable energy agencies for project implementation, monitoring, and policy enforcement.
- Research & Innovation Support: Funding for R&D in battery storage, hybrid projects, offshore wind, and green hydrogen.
- International Cooperation & Training Programs: Collaboration with IRENA, GIZ, and other global agencies for knowledge exchange.
Way Ahead
- Large hybrid and ReNew’s Round-the-Clock (RTC) projects are moving into execution across Rajasthan, Gujarat, and Karnataka.
- Offshore wind and pumped hydro storage are gaining momentum.
- Distributed solar and agrovoltaic initiatives under PM Suryaghar and PM KUSUM are deepening rural participation.
- The National Green Hydrogen Mission is linking renewables with industrial decarbonisation.
- RE integration through strengthening of Green Energy Corridor Phase III.
Conclusion
- Over the past two years, policy attention has consciously shifted from pure capacity growth to system design.
- These reforms mark a decisive step toward optimising transmission utilisation and fast-tracking stranded renewable projects, directly addressing one of the sector’s core implementation challenges.
Source: PIB