Pattern modification of a neuronal network for individual-cell-based electrophysiological measurement using photothermal etching of an agarose architecture with a multielectrode array

I. Suzuki, Y. Sugio, H. Moriguchi, Akihiro Hattori, Kenji Yasuda, Y. Jimbo

Research output: Contribution to journalArticle

10 Citations (Scopus)

Abstract

A new type of individual-cell-based on-chip multielectrode array (MEA) cell-cultivation system with an agarose microchamber (AMC) array for topographical control of the network patterns of a living neuronal network has been developed. The advantages of this system are that it allows control of the cell positions and numbers for cultivation using AMCs, as well as easy and flexible control of the pattern of connections between the AMCs through photothermal etching where a portion of the agarose layer is melted with a 1480nm infrared laser beam. With adequate laser power, narrow micrometer-order grooves (microchannels) can easily be fabricated that can be used to combine neighbouring AMCs to enable topographical control of the neural network pattern. Using this system, an individual-cell-based neural network pattern was formed of rat hippocampal cells within the AMC array without cells escaping from the electrode positions in the microchamber during an eight-day cultivation, and could record cell firing in response to 1.5V, 500kHz stimulation through an electrode. This demonstrated the potential of the on-chip AMC/MEA cell cultivation system for long-term single-cell-based electrophysiological measurement of a neural network system.

Original languageEnglish
Pages (from-to)116-121
Number of pages6
JournalIEE Proceedings Nanobiotechnology
Volume151
Issue number3
DOIs
Publication statusPublished - 2004 Jun
Externally publishedYes

Fingerprint

Sepharose
Etching
Neural networks
Electrodes
Infrared lasers
Microchannels
Laser beams
Rats
Lasers
Cell Count

ASJC Scopus subject areas

  • Electrical and Electronic Engineering
  • Control and Systems Engineering
  • Materials Science (miscellaneous)

Cite this

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title = "Pattern modification of a neuronal network for individual-cell-based electrophysiological measurement using photothermal etching of an agarose architecture with a multielectrode array",
abstract = "A new type of individual-cell-based on-chip multielectrode array (MEA) cell-cultivation system with an agarose microchamber (AMC) array for topographical control of the network patterns of a living neuronal network has been developed. The advantages of this system are that it allows control of the cell positions and numbers for cultivation using AMCs, as well as easy and flexible control of the pattern of connections between the AMCs through photothermal etching where a portion of the agarose layer is melted with a 1480nm infrared laser beam. With adequate laser power, narrow micrometer-order grooves (microchannels) can easily be fabricated that can be used to combine neighbouring AMCs to enable topographical control of the neural network pattern. Using this system, an individual-cell-based neural network pattern was formed of rat hippocampal cells within the AMC array without cells escaping from the electrode positions in the microchamber during an eight-day cultivation, and could record cell firing in response to 1.5V, 500kHz stimulation through an electrode. This demonstrated the potential of the on-chip AMC/MEA cell cultivation system for long-term single-cell-based electrophysiological measurement of a neural network system.",
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AU - Yasuda, Kenji

AU - Jimbo, Y.

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