Pashaie Ramin, Farhat Nabil H
Department of Electrical and System Engineering, University of Pennsylvania, 200 South 33rd Street, Philadelphia,Pennsylvania 19104-6391, USA.
Appl Opt. 2007 Dec 10;46(35):8411-8. doi: 10.1364/ao.46.008411.
A thin film of electron-trapping material (ETM), when combined with suitable optical bistability, is considered as a medium for optical implementation of bioinspired neural nets. The optical mechanism of ETM under blue light and near-infrared exposure has the inherent ability at the material level to mimic the crucial components of the stylized Hodgkin-Huxley model of biological neurons. Combining this unique property with the high-resolution capability of ETM, a dense network of bioinspired neurons can be realized in a thin film of this infrared stimulable storage phosphor. When combined with suitable optical bistability and optical interconnectivity, it has the potential of producing an artificial nonlinear excitable medium analog to cortical tissue.
当与合适的光学双稳性相结合时,电子俘获材料(ETM)薄膜被视为用于生物启发神经网络光学实现的介质。ETM在蓝光和近红外光照射下的光学机制在材料层面具有内在能力,可模拟生物神经元的经典霍奇金-赫胥黎模型的关键组成部分。将这一独特特性与ETM的高分辨率能力相结合,可以在这种红外可激发存储磷光体的薄膜中实现密集的生物启发神经元网络。当与合适的光学双稳性和光学互连性相结合时,它有可能产生一种类似于皮质组织的人工非线性可激发介质。