EvoPhase: AI-led 'evolutionary design'

EvoPhase was founded in 2023 to champion an AI-led ‘evolutionary design’ approach that is applicable to a diverse range of equipment, across many sectors. By coupling this with material characterisation, and digital and predictive model development, EvoPhase is set to drive a revolution in industrial process efficiency.

Evolving an attritor mill design: optimising equipment can reduce the energy costs of milling processes by more than 40%.

The team behind EvoPhase has a fundamental understanding of particle and fluid dynamics, and is one of the first research groups in the UK to explore the intersection of AI and particle technologies or complex fluid dynamics.

They originally set their sights on optimising the design of industrial equipment, including mixers, dryers, roasters, and blenders, for processing particulate materials. Despite their extensive use, the characteristics of granular materials remain poorly understood, and their behaviour is so complex that mathematical modelling is a significant challenge.

For this work, EvoPhase uses a numerical method called DEM (discrete element method) to simulate the movement of millions of small particles, and coupled it with evolutionary AI algorithms, that work like natural selection to ‘evolve’ entirely novel designs by selecting the best combination of parameters (such as power, throughput and mixing rate) rather than trading these targets off against each other.

Beyond granular materials

The team’s expertise extends beyond granular materials. Every single team member has a deep understanding of complex fluids and one of the other things EvoPhase does is to model the properties of fluids and optimise formulations, using a similar evolutionary approach.

The team recently completed a project for a Fast Moving Consumer Goods (FMCG) company that involved optimising both the fluid and the equipment used to process it.

Here the researchers were using numbers that are almost impossible to measure in real life, and they used their technology to optimise the parameters of a simulation, to provide the company with a really accurate model of this horrifically complicated fluid they work with.

The project had relatively few constraints in terms of what could optimised, or what could be changed within the system, and the final design delivered a tenfold improvement in the mixing rate.

While this could be viewed simply as a tenfold increase in productivity, because you’re running the equipment for only 10% of the time, it also represents a 90% saving on the energy bill, and 90% less CO2 due to the energy used. The beautiful thing is the client company could simultaneously increase both productivity and sustainability by a factor of ten.

Dr Kit Windows-Yule
Kit Windows-Yule
CSO, EvoPhase

Evolving a wind turbine

The team recently set their own challenge to test the power of their evolutionary algorithms – and designed a wind turbine that would work in the extremely low wind speeds in Birmingham, the UK’s second city.

The AI was able to generate, test, and refine over 2,000 wind turbine designs in just a few weeks, achieving what would have taken years and millions of pounds through conventional methods.

The result was an entirely novel – and bespoke – design for a set of curved blades that spin around a central point, and the simulations showed this design will be up to seven times more efficient than existing designs used in the Birmingham area.

We set the design parameters to capture Birmingham’s relatively low wind speeds, manage the turbulence caused by surrounding buildings, and be compact and lightweight to suit rooftop installations, and the AI allowed us to explore design possibilities beyond the scope of traditional human experimentation.

Dr Kit Windows-Yule
Kit Windows Yule
CSO, EvoPhase
The EvoPhase team

The EvoPhase team with the Birmingham Blade - From L-R: Leonard Nicusan, Kit Windows-Yule, Dominik Werner and Jack Sykes