Kelliher Julia M, Johnson Leah Y D, Robinson Aaron J, Longley Reid, Hanson Buck T, Cailleau Guillaume, Bindschedler Saskia, Junier Pilar, Chain Patrick S G
Bioscience Division, Los Alamos National Laboratory, Los Alamos, NM, United States.
Laboratory of Microbiology, Institute of Biology, University of Neuchâtel, Neuchâtel, Switzerland.
Front Microbiol. 2024 Aug 7;15:1380199. doi: 10.3389/fmicb.2024.1380199. eCollection 2024.
Diverse and complex microbiomes are found in virtually every environment on Earth. Bacteria and fungi often co-dominate environmental microbiomes, and there is growing recognition that bacterial-fungal interactions (BFI) have significant impacts on the functioning of their associated microbiomes, environments, and hosts. Investigating BFI remains a challenge, particularly when attempting to examine interactions at multiple scales of system complexity. Fabricated devices can provide control over both biotic composition and abiotic factors within an experiment to enable the characterization of diverse BFI phenotypes such as modulation of growth rate, production of biomolecules, and alterations to physical movements. Engineered devices ranging from microfluidic chips to simulated rhizosphere systems have been and will continue to be invaluable to BFI research, and it is anticipated that such devices will continue to be developed for diverse applications in the field. This will allow researchers to address specific questions regarding the nature of BFI and how they impact larger microbiome and environmental processes such as biogeochemical cycles, plant productivity, and overall ecosystem resilience. Devices that are currently used for experimental investigations of bacteria, fungi, and BFI are discussed herein along with some of the associated challenges and several recommendations for future device design and applications.
地球上几乎每个环境中都存在着多样而复杂的微生物群落。细菌和真菌常常共同主导环境微生物群落,并且人们越来越认识到细菌 - 真菌相互作用(BFI)对其相关微生物群落、环境和宿主的功能有着重大影响。研究BFI仍然是一项挑战,尤其是在试图研究系统复杂性多个尺度上的相互作用时。人造装置可以在实验中对生物组成和非生物因素进行控制,以便能够表征各种BFI表型,如生长速率的调节、生物分子的产生以及物理运动的改变。从微流控芯片到模拟根际系统等工程装置已经并将继续对BFI研究具有重要价值,预计此类装置将继续被开发用于该领域的各种应用。这将使研究人员能够解决有关BFI的性质以及它们如何影响更大的微生物群落和环境过程(如生物地球化学循环、植物生产力和整体生态系统恢复力)的具体问题。本文讨论了目前用于细菌、真菌和BFI实验研究的装置,以及一些相关挑战和对未来装置设计与应用的若干建议。