Professional rooftop solar solutions for homes, businesses and institutions across Telangana, designed around your actual consumption, installed to proper electrical standards.
Every system is sized from your electricity bill and a site assessment, never from a generic package list.
Your bill tells us more about the right system size than your terrace does. Enter roughly what you pay each month and we will estimate the capacity, generation and savings that go with it.
Solar Savings Calculator
Enter your bill and the numbers update as you type.
Start with your monthly bill. Tariff and terrace size sharpen it further.
We size the system from the units you actually consume, not from a fixed package.
Results update as you type. No contact details needed.
Enter your monthly bill on the left and every figure below fills in immediately.
Recommended capacity
0 kW
Sized to your yearly usage, then rounded to a practical system size.
Estimated annual savings
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Units offset in a year, valued at your tariff. Before any subsidy.
Estimated annual generation
0 units
Expected output over a full year, averaged across the seasons.
Monthly generation
0 units
Annual bill offset
0% of usage
Rooftop area needed
0 sq ft
CO₂ avoided per year
0 tonnes
A house uses power in the evening. A showroom uses it all day. A farm pump runs in bursts. Those are different problems, so we size them differently.
Independent houses, villas and apartment owners
A system sized to what your house actually uses, so your monthly bill comes down and stays down as tariffs rise.
Shops, showrooms, offices, hospitals, schools and commercial buildings
Commercial tariffs are higher than domestic ones, so every unit your roof generates replaces a costlier unit from the grid. That is why the numbers often work better for a shop or office than for a house.
Factories, processing units, workshops and industrial sheds
Factory sheds usually have large, uninterrupted roofs and a steady daytime load, close to the ideal case for solar. The roof is already there and doing nothing.
Farms, agricultural pump sets and rural establishments
Sized to the pump, not to a monthly bill. We work from the pump rating, how much water you need and how many hours a day it has to run.
A rough reference before you use the calculator. These figures assume typical Telangana conditions and an unshaded terrace. Your own numbers will shift with orientation, shading and the components used.
| Size | Typically suits | Indicative generation | Indicative area |
|---|---|---|---|
| 1 kW | A small home with light usage: fans, lights, TV and a fridge. | ~4 units/day | ~90 sq ft |
| 2 kW | A small to mid-size home, typically with one air conditioner used sparingly. | ~8 units/day | ~180 sq ft |
| 3 kW | The most common residential size, a typical family home with regular AC use. | ~13 units/day | ~270 sq ft |
| 5 kW | A larger home with multiple air conditioners, or a small shop or office. | ~21 units/day | ~450 sq ft |
| 10 kW | A large residence, small commercial establishment, school or clinic. | ~42 units/day | ~900 sq ft |
| 25 kW+ | Commercial and industrial premises with substantial daytime load. | ~105 units/day and above | ~2,250 sq ft and above |
It comes down to what the site needs. Battery storage is not a system type of its own: it is the component that lets a hybrid or off-grid system keep running when the grid cannot.
Customers whose main goal is reducing the monthly electricity bill.
The system works alongside your grid connection. Solar powers your loads during the day, and anything extra can be exported to the grid where net metering is available. There is no battery, so the system does not run during a grid outage.
Energy flow
Rooftop solar is a straightforward chain. Understanding it helps you judge whether a proposal you receive is complete, particularly the protection stages, which are the easiest to leave out.
Irradiance falls on the module surface through the day.
Modules convert sunlight into DC electricity.
DC isolators, fuses and surge protection on the array side.
Converts DC into grid-quality AC and tracks maximum power.
AC breakers, RCD and earthing before the distribution board.
Your appliances and equipment run on solar first.
Surplus is exported to the grid, or stored if you have a battery.
In an on-grid system there is no battery, and the inverter shuts down during a grid outage for line-worker safety. A hybrid system keeps your backed-up circuits running from the battery instead.
The three plans differ in the panels, the inverter, the protection and whether you get battery backup, not just in price. We do not publish a price per kW, because the real cost depends on your roof, and a number that fits one terrace misleads on another.
Practical and reliable
Reliable and practical solar solution.
Final pricing is shared after understanding your electricity usage, system requirement and site conditions.
Balanced performance and value
Balanced performance, quality and long-term value.
Final pricing is shared after understanding your electricity usage, system requirement and site conditions.
Higher performance and configuration
For customers looking for higher performance and enhanced features.
Final pricing is shared after understanding your electricity usage, system requirement and site conditions.
Every project runs the same way, so you always know what comes next and what we need from you.
We start with a conversation about your property, your electricity usage and what you want solar to achieve: bill reduction, backup, or both.
Your recent bills tell us your actual consumption pattern, tariff category and sanctioned load. This is the foundation for correct sizing.
We assess usable roof area, orientation, shadow patterns through the day, structural suitability and the route for cabling and earthing.
You receive a system design with capacity, component selection, protection scheme, expected generation range and a clear commercial proposal.
Mounting structure, modules, inverter, DC and AC protection, earthing and cabling are installed and tested before the system is commissioned.
We assist with net metering paperwork and applicable scheme documentation, and remain available for after-sales support and maintenance guidance.
Timelines for DISCOM approvals, inspection and meter installation are determined by the distribution company, so we do not promise guaranteed approval dates.
Rather than general claims about quality, here is specifically what we commit to on every system. Hold us to these.
Sizing starts from your actual consumption and site conditions, not from a generic package list.
Components are selected on performance, warranty and suitability for the specific project rather than on lowest headline price alone.
DC-side and AC-side protection and earthing are treated as part of the core design, not as optional extras.
You get a clear explanation of what is being installed, why that capacity, and what the realistic generation range is.
Cable routing, structure alignment and finishing are treated as part of the deliverable.
Support with net metering and applicable scheme paperwork, subject to the requirements of the relevant authority.
Guidance on monitoring, cleaning schedules and service after the system is commissioned.
Based in Mancherial and serving customers across Telangana, with local site access and follow-up.
We are not tied to one brand, and we would not serve you well if we were. What goes on your roof depends on the system size, your budget, what is genuinely available at the time, the warranty terms and what suits the site.
The panels that convert sunlight into DC electricity.
How we select: Selected on efficiency, technology, warranty terms and suitability for your available roof area.
Converts DC from the panels into AC usable by your loads and the grid.
How we select: Selected on system type (on-grid or hybrid), capacity matching, MPPT design and monitoring capability.
The structure that holds modules at the correct tilt and orientation.
How we select: Selected on roof type, wind loading, corrosion resistance and required tilt for your location.
DC and AC cabling connecting modules, inverter and your distribution board.
How we select: Sized for current-carrying capacity and voltage drop, with UV-rated cable used on exposed DC runs.
DC and AC protection devices, surge protection and earthing.
How we select: Specified so that both the DC and AC sides are protected and the system is safe to isolate for maintenance.
Batteries used in hybrid and off-grid systems.
How we select: Selected on chemistry, usable capacity, cycle life and the specific loads you want backed up.
Lets you see generation and system status.
How we select: Depends on the inverter platform and whether you want per-string or system-level visibility.
The specific make and model proposed for your project is confirmed in your written proposal after site assessment, based on what is genuinely available and appropriate at that time.
Straight answers, including the parts most sellers skip over.
Roughly 80 to 100 sq ft of shadow-free terrace per kW. So a 3 kW system needs about 250 to 300 sq ft, a little under a third of a typical 1,000 sq ft terrace. The exact figure depends on module wattage and efficiency, the tilt and orientation of the structure, and the spacing needed to avoid row-to-row shading. Elevated structures over an existing roof slab can change the usable area considerably, so the number is confirmed during site assessment.
Work it out from your bill, not from your terrace size. Sizing starts from your monthly consumption in units. Take your average monthly units from recent bills and work back to the daily requirement, then size the system against the generation your location can realistically deliver. In Telangana, a well-installed 1 kW system commonly generates in the region of 4 to 4.5 units per day averaged over the year, though this varies with season, orientation, shading and system condition. Roof area, budget and your target bill offset then refine the final capacity.
Yes, but the panels generate less. They work on whatever light reaches them, so on a heavily overcast day output can fall well below a clear day. This is expected and is already accounted for when annual generation is estimated, which is why sizing uses a yearly average rather than a best-day figure. Monsoon months typically generate less than clear winter and pre-summer months.
An on-grid system works alongside your existing grid connection with no battery. Solar powers your loads during the day, and where net metering is available, surplus generation can be exported to the grid and accounted against your consumption. Because there is no battery and the inverter is required to disconnect during a grid outage for line-worker safety, an on-grid system does not provide backup during a power cut. It is the lowest-cost configuration and suits customers whose main goal is bill reduction.
A hybrid system uses an inverter that manages solar, battery and grid together. During the day, solar runs your loads and charges the battery. During an outage, the battery supplies the circuits you have chosen to back up. It costs more than on-grid because of the battery and the hybrid inverter, and the battery is sized to your essential loads rather than to the entire property.
Only if you need power during cuts, or want to use solar energy after sunset. A battery does not increase how much electricity your panels generate. It stores what has already been generated so you can use it later, with a small round-trip loss. If your supply is reliable and your goal is bill reduction, an on-grid system without a battery usually gives better value. If outages are frequent or long, a hybrid system is worth the additional cost.
Start with an estimate, or talk to us directly. Either way, the next step is a site assessment and a proper proposal, not a sales pitch.