This comprehensive review synthesizes the most current knowledge of plant‐associated microbiomes across key ecological compartments, including the rhizosphere, endosphere, phyllosphere, and seeds, highlighting their assembly drivers, functional mechanisms, and translational potential.
Abstract
Abstract Plants are best understood as evolutionary holobionts, in which the host and its associated microbiomes operate as an integrated unit to influence growth, health, and stress resilience. This comprehensive review synthesizes the most current knowledge of plant‐associated microbiomes across key ecological compartments, including the rhizosphere, endosphere, phyllosphere, and seeds, highlighting their assembly drivers, functional mechanisms, and translational potential. We dissect the molecular foundations of rhizobial and arbuscular mycorrhizal (AM) symbioses, the plant‐AM fungus‐bacterium continuum, alongside emerging concepts including the aerial root mucilagesphere, phyllosphere homeostasis, and the pathobiome. We further explore host genetic, metabolic, and environmental determinants of microbiome assembly, and present cutting‐edge methodologies ranging from quantitative profiling to artificial intelligence‐driven synthetic community design. Finally, we outline a strategic blueprint for harnessing standardized synthetic microbiomes and precision microbiome engineering to advance sustainable agriculture. This integrative framework bridges fundamental ecology with practical applications, delineating a path toward climate‐resilient crop production.
This work introduces Rhizosphere Engineering 2.0 (RE 2.0), a predictive, systems-level framework that integrates systems biology, multi-omics, ecological network analysis, synthetic biology, artificial intelligence (AI), and precision agriculture to forecast and design microbiome composition and function before field d...
Soil pollution poses a profound threat to ecosystem and human health. This review proposes a novel framework centered on engineering biological interaction networks for efficient and sustainable soil decontamination, moving beyond the traditional single‐species paradigm. We dissect the architecture and dynamics of key...
X. Wan, Yan-Ru Zhou, Jun Yang et al.· Physiologia Plantarum : An I...· 0 citations
Microbiome homeostasis is crucial for host health and ecosystem function, yet the molecular and ecological mechanisms underlying community assembly and stability remain elusive. Here we uncover a conserved yeast-oomycete association that promotes their coexistence in the leaf microbiome. Using a continental-scale micro...
Yi-Heng Hu, Johanna Bode, Daniel Gómez-Pérez et al.· Nature Microbiology· 0 citations
The increasing demand for resilient and sustainable food production necessitates a comprehensive understanding of rhizosphere microbial communities and their functional roles in enhancing plant health, nutrient acquisition, stress resilience, and crop productivity, thereby supporting food security and sustainable agric...
Oluwaseun Emmanuel Shittu, Jing Ge, O. Babalola· International Journal of Gen...· 0 citations
The rhizosphere is a key ecological niche where plants interact with microorganisms, and its health directly affects plant growth, development, and disease resistance. Existing theories have laid an important foundation for understanding plant-microbe interactions. Among them, the biological market theory interprets th...
Wei Qiu, Xiu-Feng Tang, Qirong Shen et al.· Plant, Cell and Environment· 1 citation
The interplay between plants and their associated microbiomes is a critical determinant of ecosystem resilience under climate change. This review synthesizes current knowledge of plant-microbiome systems, focusing on the molecular mechanisms that govern synergistic interactions and on systems biology approaches to un...
M. Abdulraheem, O. Fawole· Symbiosis· 1 citation
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