Neelam Asia, Tabassum Shawana
Department of Electrical Engineering, The University of Texas at Tyler, Tyler, TX 75799, USA.
Micromachines (Basel). 2023 Jan 12;14(1):195. doi: 10.3390/mi14010195.
Plant-microbe interactions are critical for ecosystem functioning and driving rhizosphere processes. To fully understand the communication pathways between plants and rhizosphere microbes, it is crucial to measure the numerous processes that occur in the plant and the rhizosphere. The present review first provides an overview of how plants interact with their surrounding microbial communities, and in turn, are affected by them. Next, different optical biosensing technologies that elucidate the plant-microbe interactions and provide pathogenic detection are summarized. Currently, most of the biosensors used for detecting plant parameters or microbial communities in soil are centered around genetically encoded optical and electrochemical biosensors that are often not suitable for field applications. Such sensors require substantial effort and cost to develop and have their limitations. With a particular focus on the detection of root exudates and phytohormones under biotic and abiotic stress conditions, novel low-cost and in-situ biosensors must become available to plant scientists.
植物与微生物的相互作用对于生态系统功能和驱动根际过程至关重要。为了全面理解植物与根际微生物之间的通讯途径,测量植物和根际中发生的众多过程至关重要。本综述首先概述了植物如何与其周围的微生物群落相互作用,以及反过来如何受到它们的影响。接下来,总结了阐明植物与微生物相互作用并提供病原体检测的不同光学生物传感技术。目前,大多数用于检测土壤中植物参数或微生物群落的生物传感器都集中在基因编码的光学生物传感器和电化学生物传感器上,这些传感器通常不适合现场应用。此类传感器的开发需要大量的精力和成本,并且存在局限性。特别关注生物和非生物胁迫条件下根系分泌物和植物激素的检测,新型低成本原位生物传感器必须可供植物科学家使用。