Mycelium-based-composites – Vision for substitution of fossil-based materials

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Abstract

For decades, fossil-based materials have formed the basis of an almost endless range of technical products. Through variable chemical composition and several additives, especially plastics can have a wide range of properties, which form the basis for the diversity of plastic-based products. While this variability enables many sustainability strategies, such as lightweighting, it is also impeding a fully circular economy. Therefore, in recent years, a number of new raw materials have been developed, but they can only cover a very limited part of the wide range of properties of fossil-based plastics. Another promising class of materials are composites based on fungal mycelium.

However, these are mainly limited to the consumer sector, e.g. vegan leather, where there is smaller demand for durability, functionality etc. The step from consumer to engineering materials require the production (or growth) process to be reproducible within the necessary quality requirements. Cyber-physical production systems have the potential to realise necessary technical qualities despite e.g. quality fluctuations of the raw material and production processes that are susceptible to interference. For this reason, this paper analyses the state of the art in production of mycelium based composites, shows the existing gaps and draws a vision to close these gaps.

基于菌丝体的复合材料--替代化石材料的愿景
几十年来,以化石为基础的材料构成了几乎无穷无尽的技术产品的基础。通过不同的化学成分和多种添加剂,塑料尤其可以具有多种特性,这为塑料产品的多样性奠定了基础。虽然这种可变性使许多可持续发展战略得以实现,如轻量化,但它也阻碍了全面循环经济的发展。因此,近年来开发出了许多新型原材料,但它们只能涵盖化石基塑料广泛特性中非常有限的一部分。另一类很有前景的材料是基于真菌菌丝体的复合材料。然而,这些材料主要局限于消费领域,如素食皮革,因为消费领域对耐用性、功能性等要求较低。从消费品到工程材料的转变要求生产(或生长)过程在必要的质量要求范围内具有可重复性。尽管原材料和生产过程容易受到干扰,但网络物理生产系统仍有可能实现必要的技术质量。为此,本文分析了基于菌丝体的复合材料的生产技术现状,指出了存在的差距,并提出了弥补这些差距的设想。
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CiteScore
3.80
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