Claim · model-written summary
Biochar suppressed N-competing bacteria (Lysobacter) in the Rhododendron soil.
- Taxon
- Rhododendron
Rhododendrone0 - Treatment
- biochare5
- Interactor
- Lysobacter
Lysobactere4other - Outcome
- N-competing bacteriae4
- Direction
- suppressinge4
Not reportedMaterialGeneCompoundOrgan / stageSecond interactorSecond interactor roleComparatorSettingValueQualifier
Organisms pictured · Representative pictures of the matched species, not figures from the paper.
Verbatim
e0“Rhododendron, an important acidophilic plant”
e4“suppressing N-competing bacteria (e.g., Lysobacter ) and pathogenic fungi (e.g., Dactylonectria )”
e5“Illumina HiSeq sequencing revealed that biochar reshaped the soil microbial community”
Title
Huimin Zhou; Guoxi Chen; Ying Zhang; et al. Journal of Environmental Management 2026. doi:10.1016/j.jenvman.2026.129308
Other claims from this paper (14)
- Intervention effect Biochar amendment dose-dependently enhanced total fine root length of Rhododendron by 57.2–85.4%.
- Intervention effect Biochar amendment enhanced plant nitrogen use efficiency of Rhododendron by 94.2–199%.
- Intervention effect Biochar amendment increased the fungal-to-bacterial ratio and mycorrhizal colonization of Rhododendron roots.
- Intervention effect Biochar suppressed pathogenic fungi (Dactylonectria) in the Rhododendron soil.
- Intervention effect Biochar enriched beneficial fungi (Condenascus) in the Rhododendron soil.
- Intervention effect Biochar enriched copiotrophic bacteria (Pseudomonas) in the Rhododendron soil.
- Intervention effect Biochar enhanced the abundance of ammonia-oxidizing bacteria (AOB) in the Rhododendron soil.
- Intervention effect Biochar reduced nirS gene abundance in the Rhododendron soil.
- Intervention effect Biochar increased potential nitrification in the Rhododendron soil.
- Intervention effect Biochar decreased denitrification activity in the Rhododendron soil.
- Intervention effect At higher application rates (4%–8%) biochar decreased the (nirS + nirK)/nosZ ratio, indicating a potential reduction in N2O emissions.
- Association Soil fertility was associated with AOB abundance in the Rhododendron soil (partial least squares path model).
- Association Soil pH was linked to nirS in the Rhododendron soil (partial least squares path model).
- Mechanism Both AOB-related and nirS-related pathways ultimately govern nitrogen use efficiency of Rhododendron (author interpretation).