Department of Bioengineering, Imperial College London.
Department of Bioengineering, Imperial College London;
J Vis Exp. 2022 Jun 23(184). doi: 10.3791/63917.
Filamentous fungi are successful inhabitants of soil and play a major role in soil ecosystems, such as in the decomposition of organic and inorganic matter, as well as regulation of nutrient levels. There they also find numerous opportunities to interact with a variety of other microbes such as bacteria or other fungi. Studying fungal interactions at the cellular level, however, can be challenging owing to the black box-like nature of soil. New microfluidic tools are being developed for the study of fungal interactions; two platforms designed to study bacterial-fungal and fungal-fungal interactions are highlighted. Within these microchannels, fungal-microbial interactions can be monitored in controlled physico-chemical environments at higher temporal and spatial resolution than previously possible. Application of these tools have yielded numerous novel biological insights, such as the observation of bacterial polar attachment to hyphae or revealing uncharacterised fungal-fungal antagonisms. A key feature of these methodologies regards the ease of use of this tool by non-experts, yielding highly translatable technologies for use in microbiology labs.
丝状真菌是土壤中的成功居民,在土壤生态系统中发挥着重要作用,例如分解有机和无机物质以及调节营养水平。在那里,它们还找到了与各种其他微生物(如细菌或其他真菌)相互作用的众多机会。然而,由于土壤的黑盒性质,研究真菌的细胞水平相互作用具有挑战性。正在开发新的微流控工具来研究真菌相互作用;重点介绍了两个设计用于研究细菌-真菌和真菌-真菌相互作用的平台。在这些微通道内,可以在以前不可能的更高时空分辨率下,在受控的物理化学环境中监测真菌-微生物相互作用。这些工具的应用产生了许多新的生物学见解,例如观察细菌对菌丝的极性附着或揭示未表征的真菌-真菌拮抗作用。这些方法的一个关键特征是非专家易于使用该工具,为微生物学实验室提供了高度可转化的技术。