
Bio-mimetic AI for robotics and industrial process control
We created a revolutionary AI framework which is based on neuroplasticity.
We created a revolutionary AI framework which is based on neuroplasticity. We use this technology to make optimal closed loop AI control systems. The neuroplasticity allows the AI to achieve optimal performance by continuously adapting to real-time variations in the equipment, process and environment.
Adaptive Intelligence uses real time feedback to continuously retrain models in the runtime environment based on new data and user adjusted goals. This means it responds quickly to environmental changes, dynamically builds up its own training data, and generates personalised results. Adaptive Intelligence can also respond to challenges that were not foreseen when the model was originally designed or built.
This powerful “adaption at the edge” eliminates the need to constantly retrain in the cloud with new data.
Why Adaptive Intelligence
AI offers unprecedented performance in real-time control with a significantly larger operational envelope than traditional control techniques such as PID or MPC, which means much more value for end users.
Adaptive Intelligence is different to other AI solutions. The compute efficiency and runtime speed that neuroplasticity delivers allows for very flexible deployment options. It can be installed everywhere, including inside the firmware of old equipment or as a secret algorithm inside a new smart product, or platform.
Adaptive intelligence runtime offers exceptional robustness, making it perfect for industrial control and optimisation applications.
Our adaptive neural controllers handle variation and continuously achieve optimum performance even when the mechanical equipment wears, or the composition and properties of feedstock changes, or the environmental conditions vary.
Our AI controllers are trained on 1st principles physics models and digital twins of the plant. This means we don’t need the large data sets typically required for AI/ML models.
Instead, we can derive our training model from plant models your engineers already have.
Because of both the way the networks are evolved and the live adaption capabilities we can achieve very high computational efficiency, and high data efficiency during training.
These three main key benefits map particularly well to our target customers in industrial applications, because of the limited data, limited compute and continuous variation in the processes.
Furthermore, we can package our AI controllers with the physics models to provide advisory systems and co-pilots. This means we offer more than just optimal control to customers. We can offer offline tools to help them understand their plant and equipment better.

Extreme Performance
Powerful
Algorithms
Adapts To
Runtime Variation
Robust to system dynamics. Enables autonomous operation
High Clock
Speed
Modes Of
Operation
Optimise for multiple runtime objectives e.g. performance or energy saving modes
Algorithms
Runtime Variation
Robust to system dynamics. Enables autonomous operation
Speed
Operation
Flexible Deployment
On-Board
Data Needed
Uses 1 principles model approach and generates own training data
Small Spaces
EMBODIMENT
Deploy into embedded controllers, or in PLC/DCS/Motion/SCADA products
On-Premise
/ On-Board
No Historical
Data Needed
Uses 1 principles model approach and generates own training data
Fits Into
Small Spaces
Flexible
Embodiment
Deploy into embedded controllers, or in PLC/DCS/Motion/SCADA products
Technology explanation
Download the 2 white papers here:
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Customer example in composite moulding
Surface Generation is an OEM that builds specialised tooling for Injection Moulding and Compression Moulding machines.
To mould difficult shapes, hi-tech heating elements consisting of smaller heating zones (or “pixels”) are required across the tool face.
The ability to heat and cool each pixel at high speed is a complex non-linear temperature control problem as the temperature of each pixel affects the neighbouring pixels. Achieving strict temperature control across different zones of the same piece of metal requires a control solution that understand the physics of the equipment so that it can adapt in real-time to the machine state and the hundreds of temperature profiles (recipes) that may be presented.
- 10% increase in energy efficiency
- 33% decrease in compressed air usage
- 40% improvement in temperature tolerance


Success Stories

– Surface Generation CEO

– Surface Generation CEO
Get in Touch
We work with your team to develop system models and a training curriculum that accommodates physical tolerances, safety limits, process scenarios and control uncertainties, while simultaneously and continuously optimising around your value drivers.
Get in Touch
We work with your team to develop system models and a training curriculum that accommodates physical tolerances, safety limits, process scenarios and control uncertainties, while simultaneously and continuously optimising around your value drivers.