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Soybean Chlorophyll-Selected Biofertilizer SynCom

A plant-guided soybean rhizosphere SynCom selected through iterative chlorophyll-based microbiome engineering to improve nodulation and biomass in soil.

Taxonomy

Taxon Ontology ID Functional Roles Abundance
soybean rhizosphere bacterial SynCom members NCBITaxon:2
CROSS_FEEDER
N/A
  • PMID:42007760 - SUPPORT (IN_VIVO)
    "a synthetic microbial community (SynCom) was developed through a host-mediated microbiome engineering approach guided by leaf chlorophyll content as a rapid, non-destructive plant trait."
Bradyrhizobium NCBITaxon:374
PRIMARY_PRODUCER
N/A
  • PMID:42007760 - SUPPORT (IN_VIVO)
    "a synthetic microbial community (SynCom) was developed through a host-mediated microbiome engineering approach guided by leaf chlorophyll content as a rapid, non-destructive plant trait."

Ecological Interactions

Ecological interaction network for Soybean Chlorophyll-Selected Biofertilizer SynCom Bipartite graph where circle nodes represent taxa and colored rectangles represent ecological interactions (cross-feeding, mutualism, syntrophy, competition, commensalism).
Taxon
Cross-feeding
Mutualism
Syntrophy
Competition
Commensalism
Niche partitioning
Colonization facilitation
Strain competition
Predation

Plant-Guided Beneficial Rhizosphere Assembly

COLONIZATION_FACILITATION

Evidence

  • PMID:42007760 - SUPPORT (IN_VIVO)
    "a synthetic microbial community (SynCom) was developed through a host-mediated microbiome engineering approach guided by leaf chlorophyll content as a rapid, non-destructive plant trait."

Environmental Factors

Factor Value Unit
chlorophyll-guided recurrent selection Rhizosphere communities from superior soybean performers were pooled and propagated across selection rounds. N/A
  • PMID:42007760 - SUPPORT (IN_VIVO)
    "a synthetic microbial community (SynCom) was developed through a host-mediated microbiome engineering approach guided by leaf chlorophyll content as a rapid, non-destructive plant trait."