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High Performance of an In-Material Reservoir Computing Device Achieved by Complex Dynamics in a Nanoparticle Random Network Memristor

Oradee Srikimkaew, Deep Banerjee, Saman Azhari, Yuki Usami, Hirofumi Tanaka

2023ACS Applied Electronic Materials22 citationsDOIOpen Access PDF

Abstract

High Resolution Image Download MS PowerPoint Slide An in-material reservoir computing (RC) device with an Ag–Ag 2 S core–shell nanoparticle (NP) network is proposed. Network-wide nonlinear sine-wave outputs of higher frequencies and varying phases were produced from the different Ag + ion diffusion rates and filament formation caused by the heterogeneous NP size in the thiol layer. Such emergent dynamics of multiple information regimes enabled the reconstruction of Fourier waves, with a maximum accuracy of 99% achieved only for trained outputs with mixed spatiotemporal complexities. Additionally, the device showed stable retrieval of past information with a two-times-step delay and successfully computed a two-step time-series prediction task with 87% accuracy.

Topics & Concepts

Reservoir computingNanoparticleNonlinear systemComputer scienceDiffusionTask (project management)Sine waveMemristorMaterials scienceSeries (stratigraphy)Dynamics (music)Fourier transformAlgorithmBiological systemNanotechnologyArtificial neural networkElectronic engineeringArtificial intelligenceMathematicsPhysicsEngineeringAcousticsRecurrent neural networkGeologyElectrical engineeringThermodynamicsQuantum mechanicsPaleontologyMathematical analysisSystems engineeringBiologyVoltageNeural Networks and Reservoir ComputingAdvanced Memory and Neural ComputingNeural dynamics and brain function
High Performance of an In-Material Reservoir Computing Device Achieved by Complex Dynamics in a Nanoparticle Random Network Memristor | Litcius