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Brain-inspired Resistive Artificial Ionic Neural Networks based on Crossbar-arrays of Conic Channels

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Brain-inspired Resistive Artificial Ionic Neural Networks based on Crossbar-arrays of Conic Channels The energy consumption of machine learning (ML) is doubling every 2 months, outpacing global energy production within the next decade. Neuromorphic computing, in particular, memristive crossbar arrays have shown energy reductions of 2 orders of magnitude in ML. However, the training is typically performed on conventional computers, leading to significant energy losses. Conical microfluidic channels have shown promise as volatile memristors, and there has been early progress toward achieving nonvolatile behavior in these channels. However, the conductance of the channels can only be increased and not decreased, which is crucial for ML. In BRAIN-CCC I will study the interactions of chemically functionalized surface groups, chemical shocks, pressure gradients and electric impulses in simulations to achieve reversible nonvolatile dynamics of the conductivity in these channels. From this, I will develop a model for t

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recordType

award

status

SIGNED

region

EU

value

217076.16

unit

EUR