Hernando Alicia Vivas, Sun Wenjing, Abitbol Tiffany
Institute of Materials (IMX) École Polytechnique Fédérale de Lausanne (EPFL) Lausanne 1015 Switzerland.
Glob Chall. 2023 Nov 8;8(3):2300140. doi: 10.1002/gch2.202300140. eCollection 2024 Mar.
Fungi adapt to their surroundings, modifying their behaviors and composition under different conditions like nutrient availability and environmental stress. This perspective examines how a basic understanding of fungal genetics and the different ways that fungi can be influenced by their surroundings can be leveraged toward the production of functional mycelium materials. Simply put, within the constraints of a given genetic script, both the quality and quantity of fungal mycelium are shaped by what they eat and where they grow. These two levers, encompassing their global growth environment, can be turned toward different materials outcomes. The final properties of myco-materials are thus intimately shaped by the conditions of their growth, enabling the design of new biobased and biodegradable material constructions for applications that have traditionally relied on petroleum-based chemicals.This perspective highlights aspects of fungal genetics and environmental adaptation that have potential materials science implications, along the way touching on key studies, both to situate the state of the art within the field and to punctuate the viewpoints of the authors. Finally, this work ends with future perspectives, reinforcing key topics deemed important to consider in emerging myco-materials research.
真菌会适应周围环境,在营养可用性和环境压力等不同条件下改变其行为和组成。本文探讨了如何利用对真菌遗传学的基本理解以及真菌受周围环境影响的不同方式来生产功能性菌丝体材料。简而言之,在给定遗传脚本的限制下,真菌菌丝体的质量和数量取决于它们吃什么以及在哪里生长。这两个因素,包括其全球生长环境,可以导向不同的材料成果。因此,真菌材料的最终特性与其生长条件密切相关,从而能够设计出用于传统上依赖石油基化学品的应用的新型生物基和可生物降解材料结构。本文强调了真菌遗传学和环境适应性中具有潜在材料科学意义的方面,同时涉及关键研究,既阐述了该领域的现有技术水平,也突出了作者的观点。最后,这项工作以未来展望结束,强化了在新兴的真菌材料研究中被认为重要的关键主题。