Demonstrates microbial pathways for dehalogenation of a harmful chemical, implying insights for effective remediation.
, Paracoccaceae, and Rhodobacteraceae-related bacteria) harboring both hydrolytic dechlorination and nitrate/sulfate-reduction genes, suggesting their involvement in CTFE3 hydrolytic dechlorination and subsequent defluorination. This study demonstrates that reducing conditions play an important role in shaping CTFE3 transformation patterns and highlight hydrolytic dechlorination as a viable pathway associated with extensive microbial defluorination, thereby offering insights for sustainable Cl-PFAS remediation.
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Zhao et al. (2026) studied this question.
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