
Research
The Centre’s research programme will generate new knowledge, drastically advancing current understanding across three pillars:
Linking neuroscience with electronics
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Systematic examination of computational functionality of human neuronal networks.
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Identification of the fundamental computational principles/mechanisms in cortical organoids to inform neuromorphic device design.
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Laying foundations for hybrid Si-neuromorphic and human-cortical-organoids devices.
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Development of advanced physical systems to model human neuronal circuits in vitro.
Advancing materials discovery
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Machine learning-driven discovery of novel phase-change materials tailored for optical memories.
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Development of perovskite-based neuromorphic components for non-linear light synaptic behaviour, advancing photonic NC systems and optoelectronic synapses.
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Understanding of the fundamental properties of redox-active and 2D materials, as well as the physical and chemical processes that govern their behaviour, to inform novel neuromorphic computing devices and brain-inspired sensors.
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Design of new physics-inspired computing algorithms that harness symmetry-breaking dynamics in driven-dissipative photonic and light-matter coupled systems to perform computations.
Developing new brain-inspired devices and systems
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Introducing new techniques for the manufacturing of beyond-CMOS nano-electronic devices and systems, lowering the carbon footprint of next-generation electronics.
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Development of novel neuromorphic sensing, computing and processing capabilities, combining photonics and spiking neural network architectures, for event-based sensing applications dealing with audio, video, RF, hyperspectral imaging and bio-signals.
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Design of systems leveraging high-speed telecom technologies & devices for computing.
