Printed Neuromorphic Devices Based on Printed Carbon Nanotube Thin‐Film Transistors

Hardware implementation of artificial synapse/neuron by electronic/ionic hybrid devices is of great interest for brain‐inspired neuromorphic systems. At the same time, printed electronics have received considerable interest in recent years. Here, printed dual‐gate carbon‐nanotube thin‐film transisto...

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Published in:Advanced functional materials Vol. 27; no. 5; pp. np - n/a
Main Authors: Feng, Ping, Xu, Weiwei, Yang, Yi, Wan, Xiang, Shi, Yi, Wan, Qing, Zhao, Jianwen, Cui, Zheng
Format: Journal Article
Language:English
Published: Hoboken Wiley Subscription Services, Inc 01.02.2017
Subjects:
Brain
carbon nanotube thin‐film transistors
Devices
Electronic devices
Electronics
Filtering
Filtration
Materials science
Neuromorphic computing
neuromorphic systems
printed electronics
Semiconductor devices
Spikes
Synapses
synaptic devices
Thin film transistors
Transistors
Voltage
ISSN:1616-301X, 1616-3028
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Abstract Hardware implementation of artificial synapse/neuron by electronic/ionic hybrid devices is of great interest for brain‐inspired neuromorphic systems. At the same time, printed electronics have received considerable interest in recent years. Here, printed dual‐gate carbon‐nanotube thin‐film transistors with very high saturation field‐effect mobility (≈269 cm2 V−1 s–1) are proposed for artificial synapse application. Some important synaptic behaviors including paired‐pulse facilitation (PPF), and signal filtering characteristics are successfully emulated in such printed artificial synapses. The PPF index can be modulated by spike width and spike interval of presynaptic impulse voltages. The results present a printable approach to fabricate artificial synaptic devices for neuromorphic systems. Printed dual‐gate carbon‐nanotube thin‐film transistors with very high saturation field‐effect mobility are proposed for artificial synapse application. Important synaptic behaviors including paired‐pulse facilitation and signal filtering characteristics are successfully emulated. The PPF index can be modulated by spike interval and spike width of presynaptic voltages. This work presents a printable approach to fabricate synaptic devices for neuromorphic system applications.
AbstractList Hardware implementation of artificial synapse/neuron by electronic/ionic hybrid devices is of great interest for brain-inspired neuromorphic systems. At the same time, printed electronics have received considerable interest in recent years. Here, printed dual-gate carbon-nanotube thin-film transistors with very high saturation field-effect mobility ([asymp]269 cm2 V-1 s-1) are proposed for artificial synapse application. Some important synaptic behaviors including paired-pulse facilitation (PPF), and signal filtering characteristics are successfully emulated in such printed artificial synapses. The PPF index can be modulated by spike width and spike interval of presynaptic impulse voltages. The results present a printable approach to fabricate artificial synaptic devices for neuromorphic systems.
Hardware implementation of artificial synapse/neuron by electronic/ionic hybrid devices is of great interest for brain‐inspired neuromorphic systems. At the same time, printed electronics have received considerable interest in recent years. Here, printed dual‐gate carbon‐nanotube thin‐film transistors with very high saturation field‐effect mobility (≈269 cm2 V−1 s–1) are proposed for artificial synapse application. Some important synaptic behaviors including paired‐pulse facilitation (PPF), and signal filtering characteristics are successfully emulated in such printed artificial synapses. The PPF index can be modulated by spike width and spike interval of presynaptic impulse voltages. The results present a printable approach to fabricate artificial synaptic devices for neuromorphic systems. Printed dual‐gate carbon‐nanotube thin‐film transistors with very high saturation field‐effect mobility are proposed for artificial synapse application. Important synaptic behaviors including paired‐pulse facilitation and signal filtering characteristics are successfully emulated. The PPF index can be modulated by spike interval and spike width of presynaptic voltages. This work presents a printable approach to fabricate synaptic devices for neuromorphic system applications.
Hardware implementation of artificial synapse/neuron by electronic/ionic hybrid devices is of great interest for brain‐inspired neuromorphic systems. At the same time, printed electronics have received considerable interest in recent years. Here, printed dual‐gate carbon‐nanotube thin‐film transistors with very high saturation field‐effect mobility (≈269 cm 2 V −1 s –1 ) are proposed for artificial synapse application. Some important synaptic behaviors including paired‐pulse facilitation (PPF), and signal filtering characteristics are successfully emulated in such printed artificial synapses. The PPF index can be modulated by spike width and spike interval of presynaptic impulse voltages. The results present a printable approach to fabricate artificial synaptic devices for neuromorphic systems.
Hardware implementation of artificial synapse/neuron by electronic/ionic hybrid devices is of great interest for brain-inspired neuromorphic systems. At the same time, printed electronics have received considerable interest in recent years. Here, printed dual-gate carbon-nanotube thin-film transistors with very high saturation field-effect mobility ( approximately 269 cm super(2) V super(-1) s super(-1)) are proposed for artificial synapse application. Some important synaptic behaviors including paired-pulse facilitation (PPF), and signal filtering characteristics are successfully emulated in such printed artificial synapses. The PPF index can be modulated by spike width and spike interval of presynaptic impulse voltages. The results present a printable approach to fabricate artificial synaptic devices for neuromorphic systems. Printed dual-gate carbon-nanotube thin-film transistors with very high saturation field-effect mobility are proposed for artificial synapse application. Important synaptic behaviors including paired-pulse facilitation and signal filtering characteristics are successfully emulated. The PPF index can be modulated by spike interval and spike width of presynaptic voltages. This work presents a printable approach to fabricate synaptic devices for neuromorphic system applications.
Author Shi, Yi
Xu, Weiwei
Wan, Qing
Cui, Zheng
Wan, Xiang
Feng, Ping
Zhao, Jianwen
Yang, Yi
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  fullname: Cui, Zheng
  email: zcui2009@sinano.ac.cn
  organization: Chinese Academy of Sciences
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Snippet Hardware implementation of artificial synapse/neuron by electronic/ionic hybrid devices is of great interest for brain‐inspired neuromorphic systems. At the...
Hardware implementation of artificial synapse/neuron by electronic/ionic hybrid devices is of great interest for brain-inspired neuromorphic systems. At the...
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SubjectTerms Brain
carbon nanotube thin‐film transistors
Devices
Electronic devices
Electronics
Filtering
Filtration
Materials science
Neuromorphic computing
neuromorphic systems
printed electronics
Semiconductor devices
Spikes
Synapses
synaptic devices
Thin film transistors
Transistors
Voltage
Title Printed Neuromorphic Devices Based on Printed Carbon Nanotube Thin‐Film Transistors
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fadfm.201604447
https://www.proquest.com/docview/1920432899
https://www.proquest.com/docview/1884134501
Volume 27
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