Michael R. Blatt , Geoffrey K. Pullum , Andreas Draguhn , Barry Bowman , David G. Robinson , Lincoln Taiz
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引用次数: 0
摘要
所有细胞都能通过离子跨膜运动产生电能。在动物神经元中,动作电位在中枢神经系统中发挥着重要作用。植物利用各种电信号来调节广泛的生理过程,包括伤口反应、含羞草叶片运动和细胞张力变化(如气孔运动)。虽然真菌菌丝会出现电波动,但它们的调控作用(如果有的话)仍然未知。安德鲁-阿达马茨基(Andrew Adamatzky)在他的论文《从真菌的电尖峰活动看真菌的语言》("Language of fungi derived from their electrical spiking activity")中,根据对真菌菌丝体中电压波动的定量分析,得出结论认为,他检测到的电波动模式可以归类为 "单词",类似于人类语言中的 "单词"。他进而推测,这种 "真菌语言 "用于在菌丝体的不同部分之间 "交流和处理信息"。在这里,我们从方法论的角度出发,认为真菌语言的推测为时过早,而且没有证据支持,他检测到的电压波动很可能是非生物噪音和实验伪影,测量到的电模式与人类语言的任何特性都不相似。
Does electrical activity in fungi function as a language?
All cells generate electrical energy derived from the movements of ions across membranes. In animal neurons, action potentials play an essential role in the central nervous system. Plants utilize a variety of electrical signals to regulate a wide range of physiological processes, including wound responses, mimosa leaf movements, and cell turgor changes, such as those involved in stomatal movements. Although fungal hyphae exhibit electrical fluctuations, their regulatory role(s), if any, is still unknown. In his paper “Language of fungi derived from their electrical spiking activity”, Andrew Adamatzky, based on a quantitative analysis of voltage fluctuations in fungal mycelia, concludes that the patterns of electrical fluctuations he detects can be grouped into “words” analogous to those found in human languages. He goes on to speculate that this “fungal language” is used “to communicate and process information” between different parts of the mycelium. Here we argue on methodological grounds that the presumption of a fungal language is premature and unsupported by the evidence presented, that the voltage fluctuations he detects are likely to originate as nonbiological noise and experimental artifacts, and that the measured electrical patterns show no similarity to any properties of human language.
期刊介绍:
Fungal Ecology publishes investigations into all aspects of fungal ecology, including the following (not exclusive): population dynamics; adaptation; evolution; role in ecosystem functioning, nutrient cycling, decomposition, carbon allocation; ecophysiology; intra- and inter-specific mycelial interactions, fungus-plant (pathogens, mycorrhizas, lichens, endophytes), fungus-invertebrate and fungus-microbe interaction; genomics and (evolutionary) genetics; conservation and biodiversity; remote sensing; bioremediation and biodegradation; quantitative and computational aspects - modelling, indicators, complexity, informatics. The usual prerequisites for publication will be originality, clarity, and significance as relevant to a better understanding of the ecology of fungi.