Dimonte Alice, Cifarelli Angelica, Berzina Tatiana, Chiesi Valentina, Ferro Patrizia, Besagni Tullo, Albertini Franca, Adamatzky Andrew, Erokhin Victor
CNR-IMEM (National Council of the Researches - Institute of Materials for Electronics and Magnetism), Parco Area delle Scienze 37A, 43124, Parma, Italy,
Interdiscip Sci. 2014 Nov 6. doi: 10.1007/s12539-014-0232-y.
Slime mold Physarum polycephalum is a single cell visible by an unaided eye. The slime mold optimizes its network of protoplasmic tubes to minimize expose to repellents and maximize expose to attractants and to make efficient transportation of nutrients. These properties of P. polycephalum, together with simplicity of its handling and culturing, make it a priceless substrate for designing novel sensing, computing and actuating architectures in living amorphous biological substrate. We demonstrate that, by loading Physarum with magnetic particles and positioning it in a magnetic field, we can, in principle, impose analog control procedures to precisely route active growing zones of slime mold and shape topology of its protoplasmic networks.
多头绒泡菌是一种肉眼可见的单细胞生物。这种黏菌会优化其原生质管网络,以尽量减少与驱避剂的接触,并最大化与引诱剂的接触,从而实现营养物质的高效运输。多头绒泡菌的这些特性,再加上其处理和培养的简便性,使其成为在无定形生物活体基质中设计新型传感、计算和驱动架构的宝贵基质。我们证明,通过给绒泡菌加载磁性颗粒并将其置于磁场中,原则上我们可以实施模拟控制程序,精确引导黏菌的活跃生长区域,并塑造其原生质网络的拓扑结构。