Tani Iori, Yamachiyo Masaki, Shirakawa Tomohiro, Gunji Yukio-Pegio
Department of Earth and Planetary Science, Graduate School of Science, Kobe University Kobe, Japan.
Department of Computer Science, School of Electrical and Computer Engineering, National Defense Academy of Japan Yokosuka, Japan.
Front Cell Infect Microbiol. 2014 Feb 28;4:10. doi: 10.3389/fcimb.2014.00010. eCollection 2014.
The plasmodium of Physarum polycephalum is often used in the implementation of non-linear computation to solve optimization problems, and this organismal feature was not used in this analysis to compute perception and/or sensation in humans. In this paper, we focused on the Kanizsa illusion, which is a well-known visual illusion resulting from the differentiation-integration of the visual field, and compared the illusion with the adaptive network in the plasmodium of P. polycephalum. We demonstrated that the network pattern mimicking the Kanizsa illusion can be produced by an asynchronous automata-fashioned model of the foraging slime mold and by the real plasmodia of P. polycephalum. Because the protoplasm of the plasmodium is transported depending on both local and global computation, it may contain differentiation-integration processes. In this sense, we can extend the idea of perception and computation.
多头绒泡菌的原质团常用于实现非线性计算以解决优化问题,而在本分析中并未利用这一生物体特征来计算人类的感知和/或感觉。在本文中,我们聚焦于卡尼兹错觉,这是一种因视野的分化整合而产生的著名视觉错觉,并将该错觉与多头绒泡菌原质团中的自适应网络进行了比较。我们证明,模仿卡尼兹错觉的网络模式可由觅食黏菌的异步自动机模型以及多头绒泡菌的真实原质团产生。由于原质团的原生质是根据局部和全局计算进行运输的,它可能包含分化整合过程。从这个意义上说,我们可以扩展感知和计算的概念。