A new learning architecture toward general intelligence.
Wakeline’s AI learns while it runs, with no pretraining, no retraining and at CPU cost. We first deployed it in energy markets. Now select companies across other industries are testing it.
THE PROBLEM
Why today’s AI struggles once the world changes.
Today’s AI systems are powerful during training and static after deployment. The world keeps changing, and the system’s understanding of it decays.
That has three costs. The system responds slowly to new signals, because it cannot take them in until it is retrained. Operational risk rises as conditions drift away from the training data. And it takes more and more compute and complexity, in retraining runs, pipelines and monitoring, to hold performance steady.
OUR THESIS
One learning mechanism,across different environments.
Wakeline is an AI research lab in Düsseldorf and Hamburg, bringing together scientists from physics, nonlinear dynamics, computer science and neuroscience. We built an architecture that learns while it runs, with no pretraining, no retraining, and one instance per asset on an ordinary CPU.
Why continual learning comes first
Intelligence is a process in time: expect, act, observe, revise. A system must learn from the consequences of its actions and revise what it knows as conditions change. Our thesis is that this ability to keep learning during operation is foundational to general intelligence.
What supports the thesis
The same learning mechanism has been applied across three different environments. In the European power market, it learns from live signals to forecast prices and inform operational decisions. In a simulated stock market, it learned hidden action costs from trading outcomes, without a reward function. In a simulated road network, it learned to anticipate delays and improved how it acted on its forecasts.
These applications test connected capabilities: learning what happens, learning what actions yield, and using that experience to make better decisions while operating. Energy is our first production deployment; the simulations demonstrate capabilities we are now seeking to test more widely.
Market Edge has forecast day-ahead electricity prices continuously in production since April 2026. It learns while operating, currently ingesting 83 parallel input streams. Battery storage operators and energy traders use its forecasts to plan their operations.
Historical backtest, Market Edge: 14 percent higher cumulative trading P&L than the TabPFN baseline across 2,097 days in the German-Luxembourg power market. The advantage concentrates in regime shifts. A backtest result, not live trading returns.
In a simulated stock market, an instance acted and learned what its actions cost: over 2,177 trades it recovered a hidden 25 percent tax schedule from the consequences of its own trades, with no reward function, and recovered it again each time the rule changed.
In a simulated road network, an instance learned to predict delays and to choose a route before the delay happened, and kept improving how it acted on its own forecasts as conditions changed. We are looking for design partners to take this into operational use.
What no pretraining, no retraining and CPU cost mean
Before deployment
No model is trained in advance. Setup connects the architecture to operational data via API or webhooks, with someone who understands the values. A cold start needs a history of a few hundred data points.
From live experience
Learning is self-supervised: each new observation grades the previous prediction. The instance learns directly from this feedback as operational data arrives, with no labelled data needed to guide its learning.
No retraining
Nothing is trained centrally and shipped out, so there are no weights to refresh. When conditions change, the instance learns from live experience and adapts in operation. Nobody needs to schedule a retraining run.
CPU cost
Each instance runs on an ordinary processor, with no GPU or training infrastructure. A single CPU server supports hundreds of live streams, allowing multiple instances to keep learning while they operate.
We welcome conversations with companies facing problems our AI could help solve, investors who share our ambition, and researchers who want to join our team and advance continual learning.
The ability to update understanding as new experience arrives. A continually learning system builds on what it knows and adapts during operation.
How does the system learn from outcomes?
Learning is self-supervised: the next observation grades the previous prediction. Each instance keeps the outcomes of its own predictions in its memory and updates its decision-making while it runs. No labelled data is needed.
Does the AI only forecast, or does it act?
It does both. In a simulated stock market, an instance was given no reward function, only the preference for actions whose recorded outcomes have been larger, and over 2,177 trades it recovered a hidden 25 percent tax schedule from the consequences of its own trades. In that study, what it held about each action was a prediction of what that action yields, and experience corrected it.
What does it require before deployment?
No trained model. A deployment wires the architecture to the operational data stream through an API or webhooks, and needs someone who knows what the values mean. A cold start needs a history of a few hundred data points.
How is it evaluated against existing models?
In backtests with a frozen setup, a stated method and a named baseline, and in production. The CLS Forecasting Benchmark compares Market Edge with TabPFN over 2,097 days of the German-Luxembourg power market. The report states its method and limitations.
What does a typical evaluation with a partner involve?
It starts with historical data: a retrospective on what actually happened, against a defined measure. After that, an instance runs on a live process and we measure the effect in the partner’s own operation.
What evidence exists from production?
Market Edge has forecast day-ahead electricity prices continuously in production since April 2026, currently from 83 parallel input streams. Battery storage operators and energy traders use the forecasts to plan their operations.
What is demonstrated today, and what remains a research goal?
Demonstrated: continual learning in production in the European power market, and in a simulated stock market and a simulated road network. The research goal is general intelligence. Continual learning first. AGI claims only after real-world adaptability is proven.
Does continual learning reduce compute requirements?
Incremental learning can reduce the need for repeated training runs over large historical datasets. The actual compute and energy savings depend on the application, the baseline system and the evaluation setup.
How is Wakeline different from LLMs like ChatGPT?
LLMs learn primarily during training. Wakeline is developing a different architecture that continues learning while it operates, carrying experience forward as its environment changes.
Does Wakeline use deep learning?
No. Our research follows a biologically inspired approach to continual learning, rather than conventional deep learning architectures.
What is Market Edge?
Market Edge is our first applied product. It uses continual learning to deliver adaptive 24-hour electricity price forecasts for European day-ahead markets.