Evaluation of Microbial Transplantation from High-Productivity Soil to Improve Soybean Performance in Less Productive Farmland

Microbial transplantation represents a sustainable strategy to address productivity gaps in agricultural soils by transferring microbiomes that enhance nutrient cycling, pathogen suppression, and stress tolerance. This study evaluates whether probiotic consortia from high-yield soybean soils (donor soil) could improve crop performance in less productive fields (recipient soil). We developed a host-adapted inoculant from soybean rhizospheres grown in donor soil and applied it to seeds at five concentrations (0.25-10 g/kg seed) in recipient soil, with untreated controls for comparison. To assess crop-specific microbial recruitment, we prepared a parallel bean-derived inoculant under identical conditions. Through 16S rRNA sequencing and growth/yield analysis, we found the following: (1) Distinct bacteriome assemblies between soybean- and bean-derived inoculants, confirming host specificity; (2) Successful enrichment of beneficial taxa (<i>Enterobacteriaceae</i> increased by 15-22%, <i>Rhizobiaceae</i> by 7-12%) despite native community resilience; and (3) Consistent yield improvement trends (4.8-6.2%), demonstrating potential to bridge productivity gaps. These results show that transplanted microbiomes can effectively modulate rhizosphere communities while maintaining ecological balance. This work establishes a scalable approach to address soil productivity limitations through microbiome transplantation. Future research should optimize (a) inoculant composition for specific productivity gaps; (b) delivery systems; and (c) compatibility with resident microbiomes, particularly in systems where niche-specific processes govern microbial establishment.

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Publication Details

Journal
Microorganisms
Published
2025-05-22
DOI
https://doi.org/10.3390/microorganisms13061177
Citations
1
Primary Topic
Legume Nitrogen Fixing Symbiosis
Type
article
Field-Weighted Citation Impact
1.75
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article

Evaluation of Microbial Transplantation from High-Productivity Soil to Improve Soybean Performance in Less Productive Farmland

Ana Carolina Mônico Moreira, Andre May, Hélio Danilo Quevedo, Danilo Tosta Souza
1 citations
Microorganisms
Legume Nitrogen Fixing Symbiosis
1.75
article

Evaluation of Microbial Transplantation from High-Productivity Soil to Improve Soybean Performance in Less Productive Farmland

Ana Carolina Mônico Moreira, Andre May, Hélio Danilo Quevedo, Danilo Tosta Souza
article en
1 citations

Abstract

Microbial transplantation represents a sustainable strategy to address productivity gaps in agricultural soils by transferring microbiomes that enhance nutrient cycling, pathogen suppression, and stress tolerance. This study evaluates whether probiotic consortia from high-yield soybean soils (donor soil) could improve crop performance in less productive fields (recipient soil). We developed a host-adapted inoculant from soybean rhizospheres grown in donor soil and applied it to seeds at five concentrations (0.25-10 g/kg seed) in recipient soil, with untreated controls for comparison. To assess crop-specific microbial recruitment, we prepared a parallel bean-derived inoculant under identical conditions. Through 16S rRNA sequencing and growth/yield analysis, we found the following: (1) Distinct bacteriome assemblies between soybean- and bean-derived inoculants, confirming host specificity; (2) Successful enrichment of beneficial taxa (<i>Enterobacteriaceae</i> increased by 15-22%, <i>Rhizobiaceae</i> by 7-12%) despite native community resilience; and (3) Consistent yield improvement trends (4.8-6.2%), demonstrating potential to bridge productivity gaps. These results show that transplanted microbiomes can effectively modulate rhizosphere communities while maintaining ecological balance. This work establishes a scalable approach to address soil productivity limitations through microbiome transplantation. Future research should optimize (a) inoculant composition for specific productivity gaps; (b) delivery systems; and (c) compatibility with resident microbiomes, particularly in systems where niche-specific processes govern microbial establishment.

MicroorganismsVol. 13(6)
Brazilian Agricultural Research Corporation (BR)
Openalex Percentile: Top 15%
Legume Nitrogen Fixing Symbiosis
1.75
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