Explore our research

Computation, life
& engineering.

Connecting computational models, biological knowledge and physical systems.

Meet the laboratory
Fluorescence microscopy of HeLa cells, with green microtubules surrounding cyan-stained DNA and orange Golgi structures.
HeLa cells. Multiphoton fluorescence microscopy.NCMIR / NIGMS Image Gallery

Understanding biological and engineered systems
through data, models and experiments.

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Research areas

Three disciplines.
A common interest in complex systems.

01

Computer science

Learning from data.
Interpreting predictions.

How can a model explain the variables behind its predictions?

We are interested in machine learning methods that make complex data useful for scientific analysis. Predictive modelling and interpretability connect model outputs to the variables that can be studied in an experiment.

  • Machine learning
  • Interpretable models
  • Experimental design
02

Biology

Reading sequences.
Studying living systems.

How can sequence and experimental data guide biological design?

Our interests connect biological sequence information with experimental observations. Computational analysis provides a way to investigate design choices and compare candidate sequences in their biological context.

  • Bioinformatics
  • Sequence design
  • Biological data
03

Mechanical
engineering

Modelling behaviour.
Connecting to the physical world.

How can sensing and control connect a model to a physical system?

We explore the relationship between computational descriptions and physical behaviour. Sensing, control and biologically inspired design offer ways to study how engineered systems interact with their environment.

  • Physical modelling
  • Sensing & control
  • Biologically inspired design

The laboratory

Aietheia brings computer science, biology and mechanical engineering into the same research conversation.

Our interests span computational methods, biological processes and engineered systems. We look for questions that benefit from these perspectives together: how a sequence can be designed, how a prediction can be understood, and how a model can inform a physical experiment.

Clear assumptions, reproducible analysis and experimental evidence guide this work.

Our research interests
A sunlit street near the laboratory, with trees, brick buildings and cycle lanes.
A view of the neighbourhood around our laboratory.

Acknowledgements

We thank the authors, maintainers and contributors who share their research software with the scientific community.