The operating system for distributed energy
Amona coordinates batteries, solar, backup power, and flexible loads so fragmented assets operate as one system, prove what they contribute, and are built to keep critical sites running when grids falter.
The largest machine ever built is being rebuilt
The twentieth-century grid was engineered as a one-way system: large plants at the center, passive consumption at the edge. That architecture is dissolving. Generation is moving to rooftops and substations, storage to basements and loading docks, and demand is becoming something that can be shaped rather than merely served.
At the same time, electricity is becoming the binding constraint on growth. AI infrastructure, electrified transport, and climate adaptation are converging on the same wires, while climate shocks and aging assets make those wires less dependable each year.
A grid of millions of small assets can be more resilient than a grid of a hundred large ones, but only if those assets are coordinated, trusted, and settled. Hardware is being deployed faster than the intelligence to govern it. Closing that gap is the defining infrastructure problem of the coming decade, and it is the problem Amona exists to solve.
Purpose. Why the grid's history points at Amona
Energy systems are rebuilt roughly once a century, and each rebuild redefines what societies can do. Understanding where the grid has been is how we know what it needs next: not more hardware alone, but coordination, autonomy, and proof at the edge.
Rooftops generate, basements store, vehicles carry batteries, and AI drives demand upward while attacks on grids in Ukraine prove that energy infrastructure is a wartime target. The one-way grid now runs backward, without a coordination layer, at the exact moment reliability matters most.
- · GRID RUNS BACKWARD
- · SECURITY UNDER ATTACK
- · COORDINATION MISSING
The grid now runs backward under attack. Amona is the coordination layer the inverted grid was never given.
Hospitals, water systems, and shelters fail quietly when power fails. Coordinated reserves are a safety system, not a convenience.
Grids are now targets. A decentralized, coordinated energy system is harder to break than any central plant.
Millions of small assets outperform a hundred large ones, but only under a layer that makes them act as one.
As data centers shrink toward homes and every site hosts inference, energy coordination and computing become the same problem.
Solar on every roof and second-life batteries in every basement only hold value if their contribution can be verified and settled.
This is the purpose. Amona exists so the next energy system is safer, harder to break, and owned at the edge.
Deployed is not the same as coordinated
Batteries, solar, EV chargers, backup generators, and flexible loads are being installed across commercial and critical infrastructure. Each arrives with its own management system. The building system knows the building. The battery system knows the battery. The inverter knows the array. No layer decides how they should behave together.
So batteries run on simple rules instead of strategy. Resilience is reactive instead of planned. Performance is invisible instead of provable. And without coordination and proof, distributed assets cannot participate in the energy markets now forming around them.
Control. Verification. Settlement.
Amona sits above site-level assets as a single operating layer. The sequence is deliberate: assets must be coordinated before their contribution can be trusted, and trusted before it can be monetized. Each stage earns the next.
Demand, solar output, battery trajectory, tariff exposure, peak-risk windows, and outage risk over the next 24 to 48 hours.
Charge and discharge timing, reserve levels, load shifting, and backup preparation, balanced across cost, resilience, and battery degradation.
Every recommendation carries its reason, expected cost impact, resilience impact, and confidence level. Operators approve, reject, or modify. Deeper integrations enable supervised dispatch.
Every forecast, recommendation, decision, and outcome is recorded. Verified performance is the bridge from operational control to economic participation, and the foundation for settlement.
The grid does not fail without warning. Amona listens
Most energy systems react to conditions. Amona's forecast engine is designed to anticipate them, by fusing external signals with site telemetry: weather and storm tracks, grid operator alerts, market prices, environmental sensors, and public threat warnings. Every signal narrows the forecast. Every forecast repositions the site before the event arrives.
This is the pattern everywhere. A wildfire shutoff warning in California, a winter storm watch in Texas, and an air-raid alert in Kyiv are different signals with the same consequence: the site that repositions before the event keeps running through it.
The node that makes every device a participant
Most energy assets were never designed to think. Inverters, meters, chargers, and generators speak different protocols, hold no local intelligence, and cannot prove anything about their own behavior. The Amona Node changes their status. Installed at a site as a gateway or embedded agent, it connects to whatever hardware exists and gives it three capabilities it was built without.
Sense and decide locally. The node collects telemetry, runs local optimization logic, and keeps critical control running even when connectivity to the cloud is lost. A site with a node degrades gracefully. A site without one goes dark blind.
Participate economically. The node gives every connected device an identity and a verified record of its behavior: what it produced, stored, shifted, or shed, and when. That record is what allows a rooftop inverter or a basement battery to be trusted by demand-response programs, flexibility markets, and settlement systems. The node is how ordinary hardware joins the energy economy.
From site state to approved action in five screens
A command view and a decision layer for operators of storage-heavy sites: Site Overview, Forecast, Optimization Plan, Dispatch Support, and the Verification Log.
You set the policy. The system runs it
Amona's optimization layer is autonomous by design. Operators do not micromanage dispatch decisions. They define an operating envelope, and the AI forecasts, decides, and executes continuously within it. Every decision is recorded, every outcome verified, and the envelope can be tightened or opened at any time.
Autonomy without an envelope is risk. An envelope without autonomy is a dashboard. Amona is the two together, with a verified record of every decision in between.
Built for sites where continuity is non-negotiable
Amona starts where coordination already has concrete value: storage-heavy, resilience-sensitive sites. Hospitals and clinics. Water and municipal systems. Telecom infrastructure. Logistics hubs. Industrial facilities. Microgrids and battery-backed commercial sites.
For these operators the question is larger than cost. It is how to keep operating under stress: which loads to protect, how much reserve to hold, and when to prepare backup systems before the grid degrades.
Where resilience is an operating condition
Ukraine operates under sustained attack on its energy system, and its answer has been to decentralize. Solar, storage, and backup generation are being deployed at hospitals, water systems, telecom sites, and municipal buildings at a pace no stable market matches. Grid operators, international donors, and site owners are aligned on the same requirement: distributed systems that hold under stress and can prove what they delivered.
These sites run exactly the asset mix Amona is built to coordinate, under exactly the conditions the platform is designed for. Amona's engineering base in Kyiv builds at the source of the problem, and first pilot deployments are being prepared for exactly these sites: continuity of power for critical loads, disciplined reserves ahead of disruption, faster recovery after it, and auditable records throughout.
A coordination system proven under these conditions is validated for every stressed grid on earth. Ukraine is where Amona earns the right to be believed.
Proven under stress. Scaled through commercial markets
Storage growth, demand charges, grid congestion, and demand-response programs make US commercial and industrial sites the natural scale market, beginning with California, Texas, and New York. The platform built to protect a Kyiv water facility is the same platform that will optimize a Texas logistics hub.
Built for distributed energy systems everywhere. Proven first where resilience is not optional.
Different threats. The same operating problem
Every grid fails differently. California sheds load ahead of wildfires. Texas islands under winter storms. New York pays for peaks and floods in storms. Ukraine defends its grid under attack. Amona treats each as the same problem: forecast the risk, position reserves before it arrives, protect what cannot stop, and prove what was delivered.
What one grid teaches, every grid inherits
Amona's operating doctrine is that threats differ on the surface and converge underneath. An attack on a substation, a wildfire shutoff, and a winter scarcity event present identically to a site: supply becomes uncertain, reserves become decisive, and critical loads must be ranked and protected. A platform that learns to operate under one threat is already most of the way to operating under the next.
This is why the Ukraine deployment strategy and the US market strategy are one strategy. Response patterns proven under attack in Kyiv become wildfire playbooks in California and winter playbooks in Texas. Every verified event, in any geography, sharpens the models everywhere. The moat is not the algorithm. It is the accumulating record of grids under stress.
Early, and deliberate about it
Amona is at the control stage of a control, verification, and settlement roadmap. The team is building the Control Dashboard and preparing first pilot deployments at storage-heavy sites. We are looking for pilot partners operating batteries, solar, and backup systems at resilience-sensitive facilities, and for investors who understand infrastructure software.