Store · Hybrids & microgrids
Solar-Plus-Storage & Microgrids.
Generation and storage in one plant, on one connection, working as a single system — round-the-clock output when the grid is there, and a self-sufficient microgrid when it isn’t. We co-engineer both halves from day one so the whole thing behaves like one machine.
The practice
One plant, one connection,
round the clock.
Bolt a battery onto a solar plant and you get two systems that argue. Design them together and you get one machine: the panels generate, the battery buffers, and a single controller decides — moment to moment — whether to serve load, store, export, or hold reserve.
Add the ability to island, and the same plant keeps a campus, a factory, or a remote site running when the grid fails or never reaches it at all. That’s the difference between solar-plus-a-battery and a microgrid.
- Generation and storage co-engineered from day one
- Grid-forming controls for stable islanded operation
- Seamless transition between grid-tied and islanded modes
- One controller balancing solar, battery, grid, and DG
What we build
Hybrids and microgrids,
for every kind of site.
From a campus that wants firmer, cleaner power to a village the grid hasn’t reached, the building blocks are the same — sun, storage, and smart controls, combined to fit the site.
Solar-plus-storage hybrids
One plant, one connection, round-the-clock output — generation and storage co-engineered to work as a single dispatchable system.
Islandable microgrids
Grid-forming controls let the plant disconnect and keep running on its own — a seamless island when the grid drops, resynced when it returns.
Rural & telecom microgrids
Reliable clean power for off-grid villages, telecom towers, and remote installations — cutting diesel runs and the logistics behind them.
Campus & industrial microgrids
Firmer, cleaner power across a campus or plant — with resilience for critical loads and a controller that keeps the whole site balanced.
Solar-storage-DG hybrids
Where a genset must stay, the controller runs it as a last resort — solar and storage first, diesel only when it truly earns its fuel.
Round-the-clock clean power
Reshape variable solar into a firm 24×7 profile — the foundation for clean power that’s available whenever the load actually needs it.
How we deliver
Data first.
Hardware second.
Load & resource study
Your demand profile mapped against the solar resource and grid reliability at the site — the inputs that shape every later choice.
Hybrid sizing & dispatch design
Solar, battery, and any DG sized together in one dispatch model — balancing firmness, autonomy, and cost across the project life.
Controls & microgrid engineering
Grid-forming inverters, the microgrid controller, protection, and source prioritisation — the logic that makes it behave as one system.
Build & integration
Array, storage, power conversion, and switchgear installed and tied together, commissioned against factory and site acceptance tests.
Islanding & EMS commissioning
Seamless islanding and resync proven live, with the EMS tuned to serve load, store, and reserve in the right order.
Operate & optimise
24×7 monitoring, augmentation planning, and periodic dispatch reviews — keeping the hybrid firm as loads shift and cells age.
Hybrid & microgrid engineering
Boring by design.
Even when it’s islanded.
- Generation and storage co-engineered from day one
- Grid-forming inverters for stable islanded operation
- Seamless grid-connected to islanded transition & resync
- LFP chemistry with multi-layer battery management
- Microgrid controller with source prioritisation
- DG integration with automatic start/stop where retained
- DC & AC protection coordination studies
- IEC / UL-aligned system design and testing
- Remote monitoring with predictive analytics
Good questions
Asked often,
answered straight.
What makes it a microgrid, not just solar plus a battery?
Controls. A microgrid can hold its own voltage and frequency and keep running on its own island when the grid is gone. That needs grid-forming inverters and a controller that prioritises sources in real time — which is exactly what we engineer in, rather than bolting a battery onto an existing plant.
Will it keep running when the grid goes down?
That’s the point of an islandable design — the plant detects the outage, disconnects, and carries your load on solar and storage without interruption, then resynchronises when the grid returns. We size the battery for the autonomy you actually need and prove the transition during commissioning.
Can we keep our diesel gensets in the mix?
Yes — for sites that need very long autonomy, we integrate the genset as a backstop. The controller runs solar and storage first and only starts the DG when it genuinely earns its fuel, so run-hours, emissions, and cost all fall sharply without giving up resilience.
Does one connection really do the job of two plants?
Often, yes. Sharing a single connection and controller between generation and storage cuts interconnection cost and complexity, and lets the plant firm its own output rather than exporting variable power. We model it against a separate-plants approach so the trade-off is on the table before you decide.