1Professor, NIT Jalandhar
2M. Tech., NIT Jalandhar & POWERGRID
3Asset Management, POWERGRID
India has emerged as a global leader in renewable energy installation, achieving over 54.18% of its total installed power capacity from non-fossil sources in June 2026—five years ahead of its COP-26 commitment. With 288.59 GW of renewable capacity, India ranks 3rd globally in solar and overall renewable capacity (as per IRENA). Looking ahead, India targets 500 GW of non-fossil capacity by 2030, reinforcing its role as a key contributor to global decarbonization efforts and sustainable development goals.
However, the integration of such high levels of variable renewable energy (VRE) presents unique technical/operational challenges. The low inherent inertia of inverter-based resources (IBRs) compromises grid frequency response and voltage stability during disturbances, while the spatial mismatch between RE-rich zones and demand centers requires high-capacity, long-distance transmission networks. During FY 2025-26, India added a record 55.29 GW of non-fossil capacity, including approximately 44.6 GW of solar and 6 GW of wind, representing one of the highest annual renewable additions globally
To address these stability concerns, system planner/utility has spearheaded the deployment of Static Synchronous Compensators (STATCOMs) in renewable energy zones. This paper presents a (i) Data analysis of renewal energy integration (ii) comprehensive analysis of practical field cases demonstrating the impact of STATCOMs on enhancing dynamic grid performance (iii) Upcoming Synchronous condensers in renewable zones.
RoCoF (Rate of Change of frequency), SC: Synchronous Condensers, BESS: Battery Energy Storage Systems, PSP: Pump Storage Plants, VRE: Variable Renewable Energy, IBR: Inverter Based Sources, FRT: Fault Ride through, E-STATCOM (Energy Storage Integrated STATCOM) and Grid-Forming STATCOM (GFM-STATCOM)