Acid mine drainage (AMD) is a multi-factor pollution formed from complex chemical,
physical, and biological interactions that takes place under ambient conditions in …

With the rapid economy and population growth, wastewater containing sulfate originated
from industrial and human activities have gradually become a potential threat to the …

Bioremediation is traditionally carried out using 'free'bacterial cells; however, in recent years,
utilization of 'immobilized'bacterial cells has gained attention as a promising technique due …

Industrial development has led to generation of large volumes of wastewater containing
heavy metals, which need to be removed before the wastewater is released into the …

Abstract Sulfate-reducing bacteria (SRB), a group of anaerobic prokaryotes, can use sulfur
species as a terminal electron acceptor for the oxidation of organic compounds. They not …

The removals of heavy metals and sulfate in the synthetic acid mine drainages (AMDs) by
Desulfovibrio desulfuricans, sulfate-reducing bacteria (SRB), and the indigenous bacteria …

Heavy metal removal was evaluated using sodium alginate immobilized sulfate reducing
bacteria (SRB) under batch and continuous mode. Under batch conditions, more than 95 …

The bacterial (dissimilatory) iron and sulfate reduction (BIR and BSR) are intimately linked to
the biogeochemical cycling of C, Fe, and S in acid mine drainage (AMD) environments. This …

Microbial reduction of sulfate and metal were simultaneously enhanced in the presence of
graphene oxide (GO)-like nanomaterials, however, the mechanism remained unclear. In this …

The performance of a continuously operated laboratory-scale rotating biological contactor
(RBC) was assessed for the removal of heavy metals viz. Cu (II), Cd (II) and Pb (II) from …