Q1. How does the technical and management-driven foundation influence project execution and customer trust?
Solarsure was built by engineers who’ve spent years solving complex infrastructure problems – from satellite-based vegetation management for US electric utilities to climate risk modelling for power grids. That DNA shows up in how we approach every project.
Most EPC companies in India’s distributed solar space are sales-led organizations that treat engineering as a cost center. We treat it as our competitive moat. Our project design process starts with site-specific structural analysis, PVsyst-grade energy yield simulations, and detailed general arrangement drawings – not generic templates scaled to fit. When a farmer in Rajasthan or a factory owner in Indore is committing ₹30–50 lakh to a solar plant, they deserve engineering rigour that matches what a 100 MW utility-scale project would receive.
The trust piece follows naturally. When your pre-sales team can walk a customer through degradation curves, module-level performance data, and realistic payback calculations rather than inflated projections, you build a different kind of relationship. Our repeat and referral rates reflect that – customers who’ve seen one plant perform as promised become our strongest advocates.
Q2. What has been your strategy for scaling operations across multiple states?
We’ve been deliberate about not chasing geography for the sake of a larger pin map. Our expansion strategy is regulation-first: we enter states where the policy environment, grid infrastructure, and subsidy frameworks create a viable commercial case – and only when we have the operational depth to execute well.
Madhya Pradesh remains our stronghold, where we’ve built deep relationships across the PM-KUSUM and C&I ecosystem – from DISCOM processes to district-level administration. When we expanded into Rajasthan, it was because the Component A and C pipeline under PM-KUSUM presented a massive opportunity (6,500+ MW under Component A alone), and our MP execution playbook translated well with targeted adaptation for RVUNL and JVVNL processes.
For each new state, our approach is the same: understand the regulatory framework inside out, build a local execution team that owns delivery end-to-end, and establish DISCOM relationships before we commit to volume. We don’t parachute a central team into a new state and hope for the best. States like Gujarat, Uttar Pradesh, and Maharashtra each have distinct tariff structures, interconnection processes, and ground realities. Treating them as interchangeable is the fastest way to burn capital and reputation.
The other piece is vertical integration. Because we handle everything from procurement through our supply chain team to project design and execution in-house, we can move into a new state without being dependent on local intermediaries for critical functions.
Q3. How do you see PM-KUSUM 2.0 transforming rural energy infrastructure and farmer participation?
PM-KUSUM 2.0 represents a meaningful evolution from the original scheme, and the two biggest shifts – Agrivoltaics and hybrid BESS integration – are what make it genuinely transformative rather than just an incremental expansion.
The agrivoltaic mandate is the most significant change. KUSUM 1.0 required farmers to dedicate land entirely to solar generation, which created a real tension: productive agricultural land being diverted to energy. KUSUM 2.0 resolves this by promoting dual land use – solar generation above, farming below. When designed correctly, agrivoltaic structures can maintain 60–70% of crop yield while generating solar power on the same land. For a farmer, this means energy income without sacrificing agricultural livelihood. That changes the participation calculus entirely.
The hybrid BESS component addresses the other fundamental limitation of the original scheme: solar-only generation doesn’t match agricultural load patterns. Farmers need power for irrigation pumps early morning and late evening – exactly when solar generation is weakest. By integrating battery storage into KUSUM projects, you create a system that can actually serve the farmer’s load profile rather than just exporting to the grid. That’s the difference between a solar plant that earns revenue on paper and one that genuinely transforms a farmer’s daily operations.
From an execution standpoint, these additions do increase project complexity – Agrivoltaic structures require different mounting designs, higher ground clearance, and crop-specific spacing. BESS integration demands more sophisticated system design and O&M capabilities. Companies that have only built basic ground-mount projects will find KUSUM 2.0 significantly harder to execute. For us at Solarsure, this complexity is actually an advantage – our engineering-first approach and vertical integration mean we can design and deliver these integrated systems without depending on multiple third-party integrators.
The broader impact on rural energy infrastructure is profound. When you combine decentralized solar generation, battery storage, and continued agricultural productivity on the same land, you’re building resilient rural energy systems that address power reliability, farmer income, and food security simultaneously. That’s the kind of integrated thinking India’s clean energy transition needs.
Q4. Which segment currently offers the biggest growth opportunity?
Commercial and Industrial (C&I) solar – particularly the open access and group captive structures – represents the largest near-term growth opportunity, both for Solarsure and the industry.
The economics are compelling and getting stronger. Industrial consumers in states like Madhya Pradesh, Maharashtra, and Rajasthan are paying ₹8–12 per unit for grid power. A well-structured open access solar project can deliver power at ₹5.00-5.50 per unit with a post-tax IRR that makes the investment case straightforward. The regulatory environment is maturing too – CERC’s recent push on market coupling and state-level open access frameworks are creating more predictable revenue structures.
BESS is the segment I’m watching most closely for the medium term. As renewable penetration increases, the grid’s need for flexible storage becomes non-negotiable. We’re building our energy storage vertical (Nevron ESS) now so we’re positioned when the economics fully converge – which I believe is 18–24 months away for C&I-scale applications in India.
Hybrid systems that combine solar with storage are where the real differentiation will emerge. A C&I customer who can get reliable 6 AM to 10 PM solar-plus-storage power without grid dependence is a fundamentally different value proposition than daytime-only solar. That’s the product we’re engineering toward.
Q5. What are the most common design or execution mistakes businesses make while adopting solar?
The most expensive mistake is also the most common: optimizing for lowest upfront cost rather than lowest levelized cost of energy over 25 years.
I see this play out in several ways. First, module selection – buyers chase the cheapest ₹/Wp price without evaluating degradation warranties, temperature coefficients, or manufacturer bankability. A module that saves ₹0.50/Wp upfront but degrades 15% faster over its lifetime costs far more in lost generation.
Second, structural engineering gets dangerously under-designed. In Central India, we deal with wind speeds up to 150 km/h during pre-monsoon storms. I’ve seen competitors use mounting structures designed for 100 km/h to save on steel costs. The plant survives three monsoons, and then one bad storm destroys a ₹2 crore installation. The structural design should follow IS 875 wind load calculations specific to the project location – there is no one-size-fits-all.
Third, electrical design shortcuts. Undersized cables, incorrect string sizing, poor earthing – these don’t show up on day one. They show up as 8–12% generation losses compounding year after year, or worse, as fire hazards.
Fourth – and this is the one that surprises most business owners – inadequate O&M planning. A solar plant is a 25-year asset. Without systematic cleaning schedules, thermal imaging for hotspot detection, inverter health monitoring, and timely component replacement, performance degrades far faster than the theoretical degradation curve suggests. We’ve audited competitor-built plants that are underperforming their design estimates by 20–25% within three years, purely due to neglected maintenance.
Q6. How important is digital monitoring and predictive maintenance in improving solar plant efficiency?
It’s becoming the single biggest differentiator between solar plants that deliver on their investment thesis and those that quietly underperform for years without anyone noticing.
Here’s the core problem: most distributed solar plants in India today are monitored reactively. Someone notices the electricity bill went up, calls the installer, and discovers the inverter has been down for three weeks. For a 500 kW C&I plant, three weeks of downtime can mean ₹3–5 lakh in lost generation – and that’s assuming the fault is caught at all.
At Solarsure, we’re building AI-powered monitoring capabilities through our technology arm, Nevron AI. The real value isn’t just in real-time dashboards – every inverter manufacturer offers those. It’s in predictive analytics: using generation data, weather correlation, and pattern recognition to identify degradation trends, soiling losses, and component failures before they impact performance.
For example, our systems can flag when a specific string’s performance deviates from its expected generation curve by more than a threshold – often weeks before it would be noticed through conventional monitoring. That early detection turns a potential five-figure loss into a routine maintenance visit.
For our PM-KUSUM portfolio specifically, where plants are distributed across remote rural locations, digital monitoring eliminates the need for constant physical site visits while actually improving oversight quality. A well-instrumented 2 MW plant in a Rajasthan village can be monitored with the same rigour as a utility-scale installation.
The industry is moving toward performance-guaranteed O&M contracts, and digital monitoring is what makes those contracts commercially viable for the service provider. You can’t guarantee 95%+ plant availability unless you have the data infrastructure to detect and respond to issues in near real-time.
Q7. How is Solarsure preparing for the next phase of India’s clean energy transition?
We’re building Nevron Group as a vertically integrated renewable energy platform specifically because the next phase of India’s energy transition will reward companies that can deliver integrated solutions – not just individual project categories.
On BESS: we’ve established Nevron ESS as a dedicated vertical. The immediate opportunity is C&I peak-shaving and demand charge management, where battery storage can deliver payback within 4–5 years at current lithium-ion prices. As the grid moves toward time-of-day tariffs more aggressively, storage becomes a core part of every commercial solar proposal, not an optional add-on.
On agrivoltaics: this is where our PM-KUSUM expertise and agricultural roots converge. The concept of dual land use – solar generation above, farming below – addresses the single biggest objection to ground-mounted solar in agricultural states: land diversion. We’re evaluating agrivoltaic designs that maintain 60–70% of crop yield while generating solar power, which fundamentally changes the land-use economics for farmers.
On hybrid systems: our approach is to build the engineering capability to design solar – storage hybrid projects in-house rather than depend on third-party integrators. The CERC framework for hybrid projects is maturing, and developers who can optimize across multiple generation sources and storage will capture disproportionate value.
Underpinning all of this is our investment in AI and data. Through Nevron AI, we’re developing forecasting and analytics tools that help renewable energy operators predict generation more accurately and manage grid compliance – capabilities that become critical as India’s renewable mix grows beyond 30% and grid stability becomes a binding constraint.
The companies that will lead India’s next energy phase aren’t the ones with the largest installed base today. They’re the ones building the technology, talent, and vertical integration to deliver reliable, bankable renewable energy at scale. That’s what we’re building at Nevron Group.
