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Energy · A decade of research · 6 years of building

Energynet

The world's first transactive energy operating system.

  • Fractal Architecture
  • Distributed Systems
  • Platform Engineering
  • Simulation
  • Product Design
ClientEnergynet
SectorEnergy
EngagementA decade of research · 6 years of building
CapabilitiesFractal Architecture · Distributed Systems · Platform Engineering · Simulation · Product Design

The grid was built as one large, fragile, centralized system.

The Grid Crisis

The power grid was built as one large, fragile, centralized system. The grid cannot absorb renewable sources at scale, because their output is intermittent, destabilizing, and expensive to integrate. The grid does not have the power for electric vehicles at scale. Power is lost every time it is transmitted over distance and stepped through transformers. Large power storage is unaffordable. Eliminating large base generators further destabilized the grid. Because the grid is centralized, it is exposed to attack, both physical (kinetic) and cyber.

Microgrids

The solution is to produce, store, and manage power close to where it is used. A microgrid does exactly that. The goal is resilience: maintaining an acceptable standard of living even as the wider grid and economy decline. Microgrids should mutually support each other to reduce the cost of resilience. Managing a microgrid is difficult, managing the interactions between microgrids doubly so. Until now no management solution existed.

Transactive Energy

Transactive Energy uses markets instead of central control to manage power systems. Each participant - a home, a building, a data center - can both use power and produce it. Participants have unique needs, policies, and preferences. Participants decide when to buy and sell power among themselves. A market determines the price and quantity. The market does a better job than central control allocating power over time.

When local power is scarce, the price rises, so participants use less or sell what participants have. When local power is plentiful, the price falls, so participants use more or buy to store. Each participant acts on its own, in real time and for the future; the result is a microgrid that balances itself.

Gallery view

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The fractal, end to end: appliances, houses, hospitals and generators trading inside microgrids; microgrids trading with each other and the utilities
01 / 06The fractal, end to end: appliances, houses, hospitals and generators trading inside microgrids; microgrids trading with each other and the utilities
Spot market: Live price, demand, and the order book for immediate trades
02 / 06Spot market: Live price, demand, and the order book for immediate trades
Forward market: contracted power, prices and quantities for the days ahead
03 / 06Forward market: contracted power, prices and quantities for the days ahead
Two nodes trading, simulated: a producer and a consumer balancing in real time
04 / 06Two nodes trading, simulated: a producer and a consumer balancing in real time
An AI data centre modelled as three microgrids and three markets
05 / 06An AI data centre modelled as three microgrids and three markets
Devices, buildings, microgrids and utilities, all participants in one system
06 / 06Devices, buildings, microgrids and utilities, all participants in one system

Meet the Energynet

The First Transactive Energy Operating System

  • The Energynet operates markets in time, so participants both respond to real-time supply & demand and plan ahead.
  • The Energynet interoperates with the existing grid and can even support the grid.
  • The Energynet is a fractal of microgrids, managing devices, buildings, towns, and countries.
  • The Energynet is completely autonomous, managing power based on the operator’s policies and preferences.
Energynet case image

Power Management

An Energynet node

A node is a set of load, storage, and production devices. It can be a single device, a building, or a group of other nodes forming a microgrid. Nodes trade power with other nodes in the same microgrid.

Microgrids and local markets

Microgrids are also nodes: they trade with other nodes in exactly the same way. The local market sets the price of power now and in the future, and each node manages its power by responding in real time to availability and price.

Balancing supply, demand, and cost

At any moment, a node can sell excess power, consume power normally, or reduce consumption when power is scarce and prices are high. It manages its devices according to the power it has already purchased, the current market price, the devices it needs to operate, and local production.

Each node continuously compares its own cost of producing power with the market price, both now and in the future. That calculation accounts for the true cost of ownership, the time of production, and the environment. It provides the basis for pricing every purchase and sale.

Responding to power shortages

When consumption must fall, Energynet calculates a mix of load and production devices in real time. It simulates how reducing load will affect the market, then uses the operator’s policies to decide how best to respond. During shortages, it distributes available power according to each node’s priority and commitments.

Control through operator policies

Operators can add, schedule, and prioritize events, set charging and discharging policies, and define special events such as island mode. These policies guide how each node responds as conditions change.

Energynet case image

Spot market: Live price, demand, and the order book for immediate trades

So Energynet replaces central control with markets. Every node buys and sells its own power.

Energynet case image

Nodes trade in real time and for the days ahead. When power is scarce the price rises, and the microgrid balances itself.

Energynet case image

A node can be a device, a building, a town. The system is a fractal of microgrids, from a single appliance to the national grid.

Energynet case image

Each level is an island of stability. It holds when the wider grid is under stress, and in aggregate the islands stabilize the grid itself.

Energynet case image
100×Simulated speed vs real time
10Years of research
Spot + forwardMarkets per node
FractalScale, device to country
Managing a microgrid is difficult. Managing the interactions between microgrids is doubly so. Until now no management solution existed.

Resilient Energy · Energynet

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