Aiduang Worawoot, Chanthaluck Athip, Kumla Jaturong, Jatuwong Kritsana, Srinuanpan Sirasit, Waroonkun Tanut, Oranratmanee Rawiwan, Lumyong Saisamorn, Suwannarach Nakarin
Department of Biology, Faculty of Science, Chiang Mai University, Chiang Mai 50200, Thailand.
Research Center of Microbial Diversity and Sustainable Utilization, Chiang Mai University, Chiang Mai 50200, Thailand.
J Fungi (Basel). 2022 Aug 11;8(8):842. doi: 10.3390/jof8080842.
The continually expanding use of plastic throughout our world, along with the considerable increase in agricultural productivity, has resulted in a worrying increase in global waste and related environmental problems. The reuse and replacement of plastic with biomaterials, as well as the recycling of agricultural waste, are key components of a strategy to reduce plastic waste. Agricultural waste is characterized as lignocellulosic materials that mainly consist of cellulose, hemicellulose, and lignin. Saprobe fungi are able to convert agricultural waste into nutrients for their own growth and to facilitate the creation of mycelium-based composites (MBC) through bio-fabrication processes. Remarkably, different fungal species, substrates, and pressing and drying methods have resulted in varying chemical, mechanical, physical, and biological properties of the resulting composites that ultimately vary the functional aspects of the finished MBC. Over the last two decades, several innovative designs have produced a variety of MBC that can be applied across a range of industrial uses including in packaging and in the manufacturing of household items, furniture, and building materials that can replace foams, plastics, and wood products. Materials developed from MBC can be considered highly functional materials that offer renewable and biodegradable benefits as promising alternatives. Therefore, a better understanding of the beneficial properties of MBC is crucial for their potential applications in a variety of fields. Here, we have conducted a brief review of the current findings of relevant studies through an overview of recently published literature on MBC production and the physical, mechanical, chemical, and biological properties of these composites for use in innovative architecture, construction, and product designs. The advantages and disadvantages of various applications of mycelium-based materials (MBM) in various fields have been summarized. Finally, patent trends involving the use of MBM as a new and sustainable biomaterial have also been reviewed. The resulting knowledge can be used by researchers to develop and apply MBC in the form of eco-friendly materials in the future.
在我们的世界中,塑料的使用不断扩大,同时农业生产力大幅提高,导致全球垃圾令人担忧地增加以及相关环境问题。用生物材料对塑料进行再利用和替代,以及农业废弃物的回收利用,是减少塑料垃圾战略的关键组成部分。农业废弃物的特征是木质纤维素材料,主要由纤维素、半纤维素和木质素组成。腐生真菌能够将农业废弃物转化为自身生长所需的养分,并通过生物制造过程促进基于菌丝体的复合材料(MBC)的形成。值得注意的是,不同的真菌种类、底物以及压制和干燥方法导致了所得复合材料在化学、机械、物理和生物学性质上的差异,最终使成品MBC的功能方面有所不同。在过去二十年中,一些创新设计生产出了多种MBC,可应用于一系列工业用途,包括包装以及家用物品、家具和建筑材料的制造,这些材料可以替代泡沫、塑料和木制品。由MBC开发的材料可被视为具有高度功能性的材料,具有可再生和可生物降解的优点,是很有前景的替代品。因此,更好地了解MBC的有益特性对于它们在各种领域的潜在应用至关重要。在此,我们通过概述最近发表的关于MBC生产以及这些复合材料在创新建筑、施工和产品设计中的物理、机械、化学和生物学性质的文献,对相关研究的当前发现进行了简要综述。总结了基于菌丝体材料(MBM)在各个领域各种应用的优缺点。最后,还综述了涉及使用MBM作为新型可持续生物材料的专利趋势。研究人员可以利用由此获得的知识,在未来开发和应用生态友好型材料形式的MBC。