Microbial populations and microbe-mineral interactions were examined in waste rock characterized by neutral rock drainage (NRD). Samples of three primary sulfide-bearing waste rock types (i.e., marble-hornfels, intrusive, exoskarn) were collected from field-scale experiments at the Antamina Cu–Zn–Mo mine, Peru. Microbial communities within all samples were dominated by neutrophilic thiosulfate oxidizing bacteria. However, acidophilic iron and sulfur oxidizers were present within intrusive waste rock characterized by bulk circumneutral pH drainage. The extensive development of microbially colonized porous Fe(III) (oxy)hydroxide and Fe(III) (oxy)hydroxysulfate precipitates was observed at sulfide-mineral surfaces during examination by field e...
Changes in microbial community composition during formation of an acid mine drainage were studied on...
Acid mine drainages (AMDs) arise at the weathering of sulphidic minerals. The occurrence of acidic s...
Mining waste rocks containing sulfide minerals naturally provide the habitat for iron- and sulfur-ox...
Microbial populations and microbe-mineral interactions were examined in waste rock characterized by ...
© 2014 by the authors; licensee MDPI, Basel, Switzerland. This article is an open acce...
The microbial populations of waste rock piles and field cells producing neutral pH drainage at the A...
Acid Mine Drainage (AMD) is a consequence of mining activity; it results from bacterial and chemical...
Mine waste rock and drainage pose lasting environmental, social, and economic threats to the mining ...
The microbial community of acid mine drainage (AMD) fascinates researchers by their adaption and rol...
The geochemical dynamics and composition of microbial communities within a low-temperature (�8.5°...
This study presents population analyses of microbial communities inhabiting a site of extreme acid m...
Microorganisms are directly or indirectly involved in many chemical alterations and in the decomposi...
The Richmond Mine at Iron Mountain, Shasta County, California, USA provides an excellent opportunit...
The effect of bacteriogenic iron oxides (BIOS) on microbial community structure in subterranean igne...
Microorganisms living in acidic environments associated with various types of mining wastes can be u...
Changes in microbial community composition during formation of an acid mine drainage were studied on...
Acid mine drainages (AMDs) arise at the weathering of sulphidic minerals. The occurrence of acidic s...
Mining waste rocks containing sulfide minerals naturally provide the habitat for iron- and sulfur-ox...
Microbial populations and microbe-mineral interactions were examined in waste rock characterized by ...
© 2014 by the authors; licensee MDPI, Basel, Switzerland. This article is an open acce...
The microbial populations of waste rock piles and field cells producing neutral pH drainage at the A...
Acid Mine Drainage (AMD) is a consequence of mining activity; it results from bacterial and chemical...
Mine waste rock and drainage pose lasting environmental, social, and economic threats to the mining ...
The microbial community of acid mine drainage (AMD) fascinates researchers by their adaption and rol...
The geochemical dynamics and composition of microbial communities within a low-temperature (�8.5°...
This study presents population analyses of microbial communities inhabiting a site of extreme acid m...
Microorganisms are directly or indirectly involved in many chemical alterations and in the decomposi...
The Richmond Mine at Iron Mountain, Shasta County, California, USA provides an excellent opportunit...
The effect of bacteriogenic iron oxides (BIOS) on microbial community structure in subterranean igne...
Microorganisms living in acidic environments associated with various types of mining wastes can be u...
Changes in microbial community composition during formation of an acid mine drainage were studied on...
Acid mine drainages (AMDs) arise at the weathering of sulphidic minerals. The occurrence of acidic s...
Mining waste rocks containing sulfide minerals naturally provide the habitat for iron- and sulfur-ox...