Iron redox cycling provides one of the most important energy sources supporting microorganisms in terrestrial hot springs. In order to understand microbial Fe(III) reduction processes in hot springs, Fe(III)-reducing bacterial consortia were successfully retrieved from seven acidic hot springs in Tengchong County, Yunnan Province, China (a temperature range from 40.6 degrees C to 74.7 degrees C and a pH range from 2.64 to 4.72). These Fe(III)-reducing consortia were mainly composed of sulfate reducing bacteria (SRB, including Desulfotomaculum, Thermodesulfobacterium and Desulfomicrobium) and organic matter fermenting bacteria (Thermoanaerobacterium and Thermoanaerobacter), with each consortia having specific composition depending on the phy...
The reduction of Fe(III) is one of the most significant reactions that takes place as anaerobic cond...
Iron (Fe) redox-based metabolisms likely supported life on early Earth and may support life on other...
Iron (Fe) redox-based metabolisms likely supported life on early Earth and may support life on other...
Recent studies have suggested that the structural Fe(III) within phyllosilicate minerals, including ...
Twenty-five samples of stratal fluids obtained from a high-temperature (60-84 degrees C) deep subsur...
Fe(III) is available as an electron acceptor in many modern hot (80–110°C) sedimentary environments ...
Iron-reducing and oxidizing microorganisms gain energy through reduction or oxidation of iron, and b...
The micromorphological structure of microbial mats (biomats) from the hot springs of the Vilyuchinsk...
Iron-rich clay minerals are abundant in the natural environment and are an important source of iron ...
It has recently been recognized that the ability to use Fe(III) as a terminal electron acceptor is a...
Biomineralized ferric oxide microbial mats are ubiquitous features on Earth, are common in hot sprin...
It has recently been noted that a diversity of hyperthermophilic microorganisms have the ability to ...
Mechanisms for Fe(III) oxide reduction were investigated in Geothrix fermentans, a dissimilatory Fe(...
The ability of hyperthermophilic microorganisms to transfer electrons to humic substances (humics) a...
The reduction of Fe(III) is one of the most significant reactions that takes place as anaerobic cond...
The reduction of Fe(III) is one of the most significant reactions that takes place as anaerobic cond...
Iron (Fe) redox-based metabolisms likely supported life on early Earth and may support life on other...
Iron (Fe) redox-based metabolisms likely supported life on early Earth and may support life on other...
Recent studies have suggested that the structural Fe(III) within phyllosilicate minerals, including ...
Twenty-five samples of stratal fluids obtained from a high-temperature (60-84 degrees C) deep subsur...
Fe(III) is available as an electron acceptor in many modern hot (80–110°C) sedimentary environments ...
Iron-reducing and oxidizing microorganisms gain energy through reduction or oxidation of iron, and b...
The micromorphological structure of microbial mats (biomats) from the hot springs of the Vilyuchinsk...
Iron-rich clay minerals are abundant in the natural environment and are an important source of iron ...
It has recently been recognized that the ability to use Fe(III) as a terminal electron acceptor is a...
Biomineralized ferric oxide microbial mats are ubiquitous features on Earth, are common in hot sprin...
It has recently been noted that a diversity of hyperthermophilic microorganisms have the ability to ...
Mechanisms for Fe(III) oxide reduction were investigated in Geothrix fermentans, a dissimilatory Fe(...
The ability of hyperthermophilic microorganisms to transfer electrons to humic substances (humics) a...
The reduction of Fe(III) is one of the most significant reactions that takes place as anaerobic cond...
The reduction of Fe(III) is one of the most significant reactions that takes place as anaerobic cond...
Iron (Fe) redox-based metabolisms likely supported life on early Earth and may support life on other...
Iron (Fe) redox-based metabolisms likely supported life on early Earth and may support life on other...