ProfessorAldo Faisal
Professor of AI & Neuroscience
Department of Bioengineering - Faculty of Engineering
Orcid identifier0000-0003-0813-7207
- Professor of AI & NeuroscienceDepartment of Bioengineering - Faculty of Engineering
- 020 7594 6373 (Work)
- 4.08, Royal School of Mines, South Kensington Campus, United Kingdom
RESEARCH
Overview
We apply quantitative and computational methods from computing, physics, and engineering to describe aand study brains from first principles. We are especially interested in how the brain copes with uncertainty and noise (Faisal et al., 2008, Nature Rev Neurosci) when processing information. These two factors have profound implications for information processing and are bound to have shaped the design of the nervous system and the way it controls and learns (movement) behaviour.
Research in the Faisal Lab operates using a multi-resolution approach encompassing several levels of biological organisation: from molecules to whole body movements. This involves, on the one side, modelling from the bottom-up signalling molecules, neurons and neutral circuits from first biophysical principles (e.g. Faisal et al., 2007, PLOS CB). On the other side analysing from the top-down human learning and motor behaviour together with conducting psychophysics experiments using virtual reality and robotic interfaces to test these theories in a quantitative setting (e.g. Faisal & Wolpert, 2009, J.Neurophys.).
In four experimental collaborations we drive this approach to:
development of neural circuits
the link between genes and behaviour
electrophysiology in the sensorimotor loop
the evolution of skilled human tool manipulation
As part of this research programme the Faisal Lab is developing a Bioinformatics of Behaviour, i.e. methods to automatically annotate, quantify and analyse large-scale data sets of human and animal behaviour.
Our research has been featured both in the academic press (e.g Nature) as well as in print media (e.g. New Scientist) and TV (e.g. Discovery TV). More on our research programme is on the Faisal Lab website.
We apply quantitative and computational methods from computing, physics, and engineering to describe aand study brains from first principles. We are especially interested in how the brain copes with uncertainty and noise (Faisal et al., 2008, Nature Rev Neurosci) when processing information. These two factors have profound implications for information processing and are bound to have shaped the design of the nervous system and the way it controls and learns (movement) behaviour.
Research in the Faisal Lab operates using a multi-resolution approach encompassing several levels of biological organisation: from molecules to whole body movements. This involves, on the one side, modelling from the bottom-up signalling molecules, neurons and neutral circuits from first biophysical principles (e.g. Faisal et al., 2007, PLOS CB). On the other side analysing from the top-down human learning and motor behaviour together with conducting psychophysics experiments using virtual reality and robotic interfaces to test these theories in a quantitative setting (e.g. Faisal & Wolpert, 2009, J.Neurophys.).
In four experimental collaborations we drive this approach to:
development of neural circuits
the link between genes and behaviour
electrophysiology in the sensorimotor loop
the evolution of skilled human tool manipulation
As part of this research programme the Faisal Lab is developing a Bioinformatics of Behaviour, i.e. methods to automatically annotate, quantify and analyse large-scale data sets of human and animal behaviour.
Our research has been featured both in the academic press (e.g Nature) as well as in print media (e.g. New Scientist) and TV (e.g. Discovery TV). More on our research programme is on the Faisal Lab website.
GRANTS
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- STANDARD - CALLThe Cancer Loyalty Card Study (CLOCS)Cancer Research UK1 Apr 2024 - 31 Mar 2027CRUK: The Cancer Loyalty Card Study (CLOCS) (2024-2027)
- STANDARD - CALLReinforcement-learning to optimise fluid management in critically ill childrenThe Jon Moulton Charity Trust1 Sep 2023 - 31 Aug 2026The Jon Moulton Charity Trust: Reinforcement-learning to optimise fluid management in critically ill children (2023-2026)
- STANDARD - CALLExtending the AI Clinician system to deliver personalised care for sepsis to critically ill childrenRosetrees Trust1 Mar 2023 - 28 Feb 2027Rosetrees Trust: Extending the AI Clinician system to deliver personalised care for sepsis to critically ill children (2023-2027)
- STANDARD - CALLMUlti-limb Virtual Environment (MUVE) for full body and augmented interactionsEngineering & Physical Science Research Council (E1 Oct 2022 - 30 Sep 2024Engineering & Physical Science Research Council (E: MUlti-limb Virtual Environment (MUVE) for full body and augmented interactions (2022-2024)
- GRANTClinical validation of the AI Clinician decision support system for sepsis treatmentNational Institute for Health Research1 Mar 2021 - 28 Feb 2025NIHR: Clinical validation of the AI Clinician decision support system for sepsis treatment (2021-2025)
- GRANTEPSRC Impact Acceleration Account 2017-2020Engineering & Physical Science Research Council (E1 Apr 2017 - 31 Mar 2022Engineering & Physical Science Research Council (E: EPSRC Impact Acceleration Account 2017-2020 (2017-2022)