Energetica India Magazine May - June 2026

As hybrid projects evolve, many are now incorporating BESS, introducing a third execution layer alongside wind and solar. While storage enhances grid stability and firm power delivery, it also introduces a distinct set of procurement timelines, com - missioning protocols, and grid integration requirements that must be coordinated alongside a wind and solar hybrid project. What was once a roadmap is now being visible on the ground, as India’s energy transition unfolds at a measurable scale across the country. With non-fossil capacity now exceeding 260 GW and accounting for more than half of the country’s installed power base, the focus is shifting from outlining tar- gets to delivering outcomes. This momentum is backed by a nation’s mandate to achieve India’s 500 GW renewable target by 2030 and the MNRE’s Wind-Solar Hybrid Policy – with approximately 65 GW of hybrid and new-technology projects already in the pipeline. The scale of what must now be executed is not a future am- bition; it is an immediate national imperative. At this level of scale, how projects are designed and executed becomes as important as how much capacity is added. Hybrid wind and solar projects are central to this shift. They are frequent- ly recognised for improving efficiency and delivering a more balanced generation curve. What receives less attention is the reality of execution behind that promise. Wind and solar may share the same grid connection, but their construction methodologies and sequencing demands are fundamentally different. Wind projects are built upward involving heavy foundations, specialised transport, and the precision erection of large components within tight weather windows and a spread of electrical network for evacuation of power. Solar projects are located in a smaller space in compar- ison to wind projects and rely on extensive land preparation, modular mounting systems, and dense electrical networks de- ployed across wide topography. When these two systems are developed together, particular- ly in hilly regions, coastal belts, or remote sites with limit- ed access, they begin to influence sequencing, logistics, and commissioning pathways in very practical ways. In such envi- ronments, synchronising the timelines becomes the difference between a hybrid project moving seamlessly into commercial operation or drifting into an uncoordinated manner towards costlier delays. The answer lies in a set of structured scheduling and coor- dination of various elements of the project that ultimately determine whether hybrid projects are completed as per the timelines envisioned. Structural Differences in Wind and Solar Execution Wind and solar may ultimately converge at the same grid con- nection, but the way they are built differs significantly. Wind projects depend on large distributed foundations across the area, requiring specialised transport, pathways, laydown ar- eas and precise erection of large components within defined weather windows. For e.g. during high wind conditions, the erection of heavy components is prohibited for reasons of the safety of equipment. Solar installations expand across well-defined areas of land through modular structures, large-scale repetition, and exten- sive electrical networks. Because of these differences, delays or disruptions in one stream do not automatically balance out in the other. For e.g. during heavy rain, the accessibility of erecting equipment is hampered, and the placement of panels gets delayed. A slowdown in turbine erection cannot be recovered through faster solar installation, and vice versa. Aligning them, there- fore, requires early coordination and disciplined sequencing to Delivering Hybrid at Scale: Why Alignment Defines Outcomes Amolak Singh Vasir SVP Projects (Execution & PMO) Oyster Renewable Energy Pvt. Ltd. HYBRID RE 56 energetica INDIA- May-June_2026