EventsDIGITALISATION FOR A SUSTAINABLE SOCIETY
Published
This submission belongs to the session Symposium 6. Theoretical Information Studies of the event DIGITALISATION FOR A SUSTAINABLE SOCIETY
Published date
09 Jun, 2017
Citation
Hector Zenil, Information Dynamics, Computation and Causality in Reprogramming Artificial and Biological Systems, in Proceedings of DIGITALISATION FOR A SUSTAINABLE SOCIETY, Gothenburg, 12 June–16 June 2017, MDPI: Basel, Switzerland, doi: 10.3390/IS4SI-2017-04107
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Information Dynamics, Computation and Causality in Reprogramming Artificial and Biological Systems

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1. School of Biomedical Engineering and Imaging Sciences and King's Institute for Artificial Intelligence, King's College London, UK
2. Karolinska Institute
Abstract

In this talk, I will explain how algorithmic information theory, which is the mathematical theory of randomness; and algorithmic probability, which is the theory of optimal induction, can be used in molecular biology to study and steer artificial and biological systems such as genetic networks to even reveal some key properties of the cell Waddington landscape, and how these aspects help in tackling the challenge of causal discovery in science. We will explore the basics of this calculus based on computability, information theory and complexity science applied to both synthetic and natural systems.

Keywords
algorithmic complexity
randomness
entropy
molecular complexity
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