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Turkey Tail, Yun Zhi · 2026 · Journal Article

Medium relevance

A nature-based duckweed-bacteria-fungi consortium enables comprehensive sulfamethoxazole degradation and detoxification in synthetic wastewater.

Trametes versicolor

OncologyImmune supportLiver support
SpeciesTurkey Tail, Yun Zhi
JournalBioresource technology
Year2026

Key points

  • Antibiotic residues in wastewater pose ecological and health risks, demanding efficient and sustainable removal strategies
  • N6), and the white-rot fungus Trametes versicolor N105 for SMX removal
  • In sterile batch reactors (1 mg/L SMX), the consortium reduced SMX below the quantification limit (0.05 mg/L) within 12 days, outperforming duckweed alone and duckweed with a single microbial partner
  • Mass balance analysis showed that biodegradation (0.90 mg/L) dominated SMX dissipation, with fungal oxidative cleavage complementing bacterial hydroxylation and duckweed-mediated deamination
  • Physiological assays indicated that microbial partners, particularly the fungal component, alleviated SMX-induced oxidative stress and enhanced pigment synthesis, thereby improving duckweed growth
  • These results demonstrate that integrating duckweed, bacteria, and fungi yields enhanced SMX removal and mitigates phytotoxicity, highlighting a promising nature-based strategy for antibiotic-contaminated wastewater

Metadata-grounded summary

Citation abstract

Antibiotic residues in wastewater pose ecological and health risks, demanding efficient and sustainable removal strategies. A nature-based tripartite system was developed combining Spirodela polyrhiza, a sulfamethoxazole (SMX)-degrading bacterium (Pseudomonas sp. N6), and the white-rot fungus Trametes versicolor N105 for SMX removal. In sterile batch reactors (1 mg/L SMX), the consortium reduced SMX below the quantification limit (0.05 mg/L) within 12 days, outperforming duckweed alone and duckweed with a single microbial partner. Mass balance analysis showed that biodegradation (0.90 mg/L) dominated SMX dissipation, with fungal oxidative cleavage complementing bacterial hydroxylation and duckweed-mediated deamination. Physiological assays indicated that microbial partners, particularly the fungal component, alleviated SMX-induced oxidative stress and enhanced pigment synthesis, thereby improving duckweed growth. These results demonstrate that integrating duckweed, bacteria, and fungi yields enhanced SMX removal and mitigates phytotoxicity, highlighting a promising nature-based strategy for antibiotic-contaminated wastewater.

Citation

Song Y, Hu Z, Yang X, Lu Y (2026). A nature-based duckweed-bacteria-fungi consortium enables comprehensive sulfamethoxazole degradation and detoxification in synthetic wastewater. Bioresource technology https://doi.org/10.1016/j.biortech.2026.134213 PMID: 41687895

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