Ferrous iron oxidation by anoxygenic phototrophic bacteria

Cited by (735)

Items 601–700 of 735

  1. Metabolic Responses of a Phototrophic Co-Culture Enriched from a Freshwater Sediment on Changing Substrate Availability and its Relevance for Biogeochemical Iron Cycling
    Caroline Schmidt, Verena Nikeleit, Franziska Schädler, Arne Leider, Ulf Lueder, Casey C. Bryce, Christian Hallmann, Andreas A. Kappler · 2020 · Geomicrobiology Journal
  2. FE(II) OXIDATION BY ANAEROBIC PHOTOTROPHIC BACTERIA: MOLECULAR MECHANISMS AND GEOLOGICAL IMPLICATIONS
    Laura R. Croal · 2005 · CaltechTHESIS (California Institute of Technology)
  3. Anaerobic Respiratory Iron(II) Oxidation
    Sarir Ahmadi, John D. Coates · 2014 · ASM Press eBooks
  4. Iron, an Element Essential to Life
    Dominique Expert · 2012 · Springer briefs in molecular science
  5. Cycling of iron and manganese in freshwater, estuarine and deep sea sediments
    Imola Ferro · 2003 · Flanders Marine Institute (Flanders Marine Institute)
  6. Subsurface Igneous Mineral Microbiology: Iron-Oxidizing Organotrophs on Olivine Surfaces and the Significance of Mineral Heterogeneity in Basalts
    Amy R. Smith · 2000
  7. Studies on heavy metal resistance of bacterial isolates from a former uranium mining area
    Götz Haferburg · 2007 · Common Library Network (Der Gemeinsame Bibliotheksverbund)
  8. Microbial Biosignatures in High-Iron Thermal Springs
    Mary N. Parenteau · 2007
  9. Fe(II)-Oxidizing Prokaryotes
    Kristina L. Straub · 2011 · Encyclopedia of earth sciences series/Encyclopedia of earth sciences
  10. Reassessing the photochemical contribution to Archean Banded Iron Formations
    Pilar C. Vergeli, Stephen J. Romaniello, Hilairy Ellen Hartnett, Ariel D. Anbar · 2025 · Chemical Geology
  11. Other Important Elements
    Emma S. Kritzberg · 2023 · Elsevier eBooks
  12. Microbial Metabolism of Iron Species in Freshwater Lake Sediments
    Bernhard Schink, M. Benz · 2000 · Springer eBooks
  13. The formation of microbial mats in drainpipes at landslide areas
    Naoto TAKAHASHI, Hiromi Segawa, Kazue Tazaki · 2007 · Journal of Groundwater Hydrology
  14. Direct evidence for eoarchean iron metabolism?
    Tue Hassenkam, Esther H. R. Tsai, Henning Osholm Sørensen, Kim N. Dalby, David M. A. Mackenzie, Mirko Holler, Darío Ferreira Sánchez, Daniel Grolimund, Stefan Bruns, Minik Thorleif Rosing · 2021 · Geobiology
  15. The Role of Microorganisms in the Formation, Dissolution, and Transformation of Secondary Minerals in Mine Rock and Drainage: A Review
    José E. Ortiz-Castillo, Mohamad Mirazimi, Maryam Mohammadi, Eben Sy Dy, Wenying Liu · 2021 · Minerals
  16. Cycles of Sulfur, Iron and Manganese
    Walter Reineke, Michael Schlömann · 2023 · Springer eBooks
  17. High-efficiency oxygen evolution by photosystem II oxygen-evolving complex containing 3Mn per reaction center
    Boris К. Semin, Lira N. Davletshina · 2023 · JBIC Journal of Biological Inorganic Chemistry
  18. Removal of Contaminants from Water by Bacterial Activity
    Jana JENČÁROVÁ, Alena Luptáková, Daniel Kupka · 2020 · Inżynieria Mineralna
  19. Metal ( U , Fe , Mn , Hg ) Cycling
    Charles M. Moore, Thomas J. DiChristina · 2003 · Wiley eBooks
  20. Use of 16S rRNA, Lipid, and Naturally Preserved Components of Hot Spring Mats and Microorganisms to Help Interpret the Record of Microbial Evolution
    David M. Ward, Mary M. Bateson, J.W. de Leeuw · 2001 · Springer eBooks
  21. Iron Formations
    Clark M. Johnson · 2018 · Encyclopedia of earth sciences series/Encyclopedia of earth sciences
  22. 湖泊铁硫循环微生物研究进展
    Yuan Yuan, Yongqin Liu · 2025 · Earth Science-Journal of China University of Geosciences
  23. Iron formations: unique archives to reconstruct the Precambrian Earth
    Albertus J.B. Smith, Sebastian Viehmann · 2025 · Elsevier eBooks
  24. Fluctuating seafloor oxygenation before, during and after the Frasnian/Famennian crisis: Quantitative colour analysis and geochemistry of Upper Devonian marine red beds, Montagne Noire, S. France
    Ondřej Bábek, Tomáš Kumpan, Stanislava Vodrážková, Catherine Girard · 2026 · Facies
  25. A critical review of geochemical contributions, anthropogenic emissions and environmental impacts of iron ion in coal seam from antiquity to the present
    Chengbin Zhang, Lai Zhou, Damao Xu, Jiayi Zhang, Xi Zhu, Zi Wang, Kaikai Zhang, Guanhong Xiao · 2026 · Critical Reviews in Environmental Science and Technology
  26. From the Cosmos to the Cell: The Central Role of Iron in the Chemistry and Evolution of Life
    Paolo Arosio, Fadi Bou‐Abdallah · 2026 · International Journal of Molecular Sciences
  27. A Microbial-Mineralization-Inspired Approach for Systematic Syntheses of Copper Oxides with Controlled Morphologies in an Aqueous Solution at Room Temperature
    Yuya Oaki, Tatsuya Ikeda, Hiroaki Imai · 2013 · Bulletin of the Chemical Society of Japan
  28. Section 8. The Interaction of Iron with Other Biogeochemical Cycles
    R. Raiswell, Donald E. Canfield · 2012 · Geochemical Perspectives
  29. A possible method for in situ nitrogen removal in landfills by microbial-pumping-iron behavior
    Yuyang Long, Jing Xu, Yao Du, Huan De Feng, Fang Yuan, Dongsheng Shen · 2016 · Environmental Science Processes & Impacts
  30. Geomicrobiology of Iron
    2008 · CRC Press eBooks
  31. Iron-Degrading Bacteria in the Aquatic Environment: Current Trends and Future Directions
    David Waikhom, Soibam Ngasotter, Laishram Soniya Devi, Soibam Khogen Singh, Sukham Munilkumar · 2023 · Springer eBooks
  32. The Biosphere
    Kent C. Condie · 2015 · Elsevier eBooks
  33. Kreisläufe von Schwefel, Eisen und Mangan
    Walter Reineke, Michael Schlömann · 2020 · Springer eBooks
  34. Unique Cellular, Physiological, and Metabolic Adaptations to the Euendolithic Lifestyle in a Boring Cyanobacterium
    Brandon Scott Guida · 2016
  35. Geochemical Environments of the Archean–Proterozoic
    V. G. Kuznetsov · 2019 · Doklady Earth Sciences
  36. Benthic cyanobacteria: growth, physiology and toxin production
    Yu. M. Polyak, В. И. Сухаревич · 2019 · Regional Ecology
  37. Anaerobic Transformation Processes, Microbiology
    2012 · SpringerReference
  38. First Bacterial Endosymbionts Found in the Phylum Ascomycota
    Eileen Fitzpatrick · 2000
  39. Microbial redox cycling of iron in Lake Grosse Fuchskuhle
    Dheeraj Kanaparthi · 2014 · Max Planck Institute for Plasma Physics
  40. Lithotroph
    Charles S. Cockell · 2014 · Encyclopedia of Astrobiology
  41. Cloning, heterologous expression and characterization of o-phthalyl-CoA decarboxylase from phthalate degrading denitrifying bacterium
    Madan Junghare · 2022 · bioRxiv (Cold Spring Harbor Laboratory)
  42. Anaerobic Transformation Processes, Microbiology
    Bernhard Schink · 2011 · Encyclopedia of earth sciences series/Encyclopedia of earth sciences
  43. Motile bacteria leverage bioconvection for eco-physiological benefits in a natural aquatic environment
    Francesco Di Nezio, Samuele Roman, Antoine Buetti‐Dinh, Oscar Sepúlveda Steiner, Damien Bouffard, Anupam Sengupta, Nicola Storelli · 2023 · bioRxiv (Cold Spring Harbor Laboratory)
  44. Iron Oxidation
    Stephanie Ann Napieralski², Nathaniel W. Fortney, Eric Roden · 2023 · Encyclopedia of Astrobiology
  45. Nuvvuagittuq Greenstone Belt
    Jonathan OʼNeil · 2023 · Encyclopedia of Astrobiology
  46. Respiration in Electroactive Bacteria: Bioinorganic Aspects
    James A. Behan, Ricardo O. Louro, Frédéric Barrière · 2023 · Wiley eBooks
  47. Ecology and cultivation
    2024 · Elsevier eBooks
  48. Mikrobiell katalysierte Redoxreaktionen und Geochemie von Eisenverbindungen im Bodensee-Sediment
    Simone Gerhardt · 2004
  49. Cyanobacterial mats in general biology
    George A. Zavarzin · 1994 · Springer eBooks
  50. Biophysical modeling of photosynthetic electron transfer and practical applications to cyanobacteria
    Susanne Rantamäki · 2013 · UTUPub (University of Turku)
  51. Lagerstätten durch Sedimentation und Verwitterung
    Florian Neukirchen, Gunnar Ries · 2016 · Springer eBooks
  52. Neutrophilic Bacteria in Iron Mineral Transformation and Their Applications
    Jacintha Esther, Lala Behari Sukla · 2015 · Soil biology
  53. Ores, Microbial Precipitation and Oxidation
    Beda A. Hofmann · 2011 · Encyclopedia of earth sciences series/Encyclopedia of earth sciences
  54. Degradação de surfactante aniônico em reator EGSB sob condição metanogênica e ferro redutora com água residuária de lavanderia comercial
    Tiago Palladino Delforno · 2014 · Digital Library of Theses and Dissertations (Universidade de São Paulo)
  55. Physiological and Mechanistic Studies of Phototrophic Fe(II) Oxidation in Purple Non-sulfur Bacteria
    Yongqin Jiao · 2007
  56. IDENTIFICATION AND ANALYSIS OF PROTEINS AND GENES RESPONSIBLE FOR MICROBIAL ANAEROBIC NITRATE-DEPENDENT IRON OXIDATION AND OVEREXPRESSION IN E. coli OF PERCHLORATE REDUCTASE
    Ming Gao · 2011 · OpenSIUC (Southern Illinois University Carbondale)
  57. Mycobacterial Iron Acquisition Mechanisms
    B. R. Byers · 2013 · Springer briefs in molecular science
  58. Nitrate removal by Fe-dependent denitrification
    Hongyu Wang, Yang Kai, Yuchong Sun, Ming Jianpu, Bin Lv, Xiaojun Yang · 2011 · International Conference on Electric Technology and Civil Engineering
  59. From Geocycles to Genomes and Back
    Sebastian Kopf, Dianne K. Newman · 2014 · ASM Press eBooks
  60. The effect of iron leaching on Arieş River ecosystem (Romania)
    A. Bodoczi · 2011
  61. Continuous Cultivation of Janssand Microbial Communities : Response to Varying Oxygen Concentrations and Temperatures
    Anna Hanke · 2014
  62. Experimental studies of mercury oxidation by anaerobic bacteria
    Matthew J. Colombo · 2013
  63. Generation of particulate iron and DOC consumption by heterotrophic iron oxidation bacteria in spring waters.
    Kyoko SAKAZAKI, Akihiko Yagi, Tokihide Yokoi, Hisayoshi Terai · 2002 · Japanese Journal of Limnology (Rikusuigaku Zasshi)
  64. Anaerobic phototrophic nitrite oxidation by Thiocapsa sp. strain KS 1 and Rhodopseudomonas
    Bernhard Schink, Joachim Schott, Benjamin M. Griffint · 2010
  65. Bacterial Autotrophic CO2 Fixation
    Roger C. Prince · 1994 · Elsevier eBooks
  66. Microbes and Global Changes in Atmosphere. History of Earth's Environment and Evolution of Life: A Perspective from Microbial-mat Research.
    Shin‐ichi Kawakami, Masao Takano, Mineo Kumazawa · 1998 · Microbes and Environments
  67. Eisengruppe: Elemente der achten Nebengruppe
    Hermann Sicius · 2021 · Springer eBooks
  68. Structural and functional characterization of the gene products responsible for phototrophic iron oxidation by purple bacteria
    Ivo H. Saraiva · 2012 · Portuguese National Funding Agency for Science, Research and Technology (RCAAP Project by FCT)
  69. Iron sedimentation and the neodymium isotopic composition of Archean seawater as inferred from banded iron-formations
    Brian W. Alexander · 2010
  70. Remoção de surfactante de água residuária de lavanderia comercial em co-digestão com esgoto doméstico em reator anaeróbio escala piloto
    Alana Gandra Lima de Moura · 2017
  71. Catalytic abiotic synthesis of uracil from cysteine and urea: Theoretical studies
    A. Mirchi, Natalia Sizochenko, Jing Wang, J. Leszczynski · 2018 · Chemical Physics Letters
  72. Beiträge zum Göttinger Umwelthistorischen Kolloquium 2007 - 2008
    Bernd Herrmann · 2008 · GRO
  73. Significance of the study of sedimental rock-forming evolution in the Earth history for the reconstruction of the changes of geochemical settings on its surface
    V. G. Kuznetsov · 2019 · Proceedings of higher educational establishments Geology and Exploration
  74. Deposits Formed by Sedimentation and Weathering
    Florian Neukirchen, Gunnar Ries · 2020 · Springer eBooks
  75. 菌株Thermus sp. TibetanG7对铯的吸附: 热泉铯硅华形成过程中生物成矿作用的征兆
    海雷 王, 绵平 郑, 晓星 黄 · 2007 · Chinese Science Bulletin (Chinese Version)
  76. Using a novel approach to precisely measure the sedimentation velocity of a (bio)chemical sediment: cyanobacteria-ferrihydrite aggregates
    Yuhao Li · 2020 · ERA: Education and Research Archive (University of Alberta)
  77. Iron oxidation is regulated by the two-component system, RegSR, and plays a role in photolithoheterotrophic growth in Rhodopseudomonas palustris
    Nicholas W. Haas, Abhiney Jain, Zachary T. Hying, Sabrina J. Arif, Jeffrey A. Gralnick, Kathryn R. Fixen · 2021 · bioRxiv (Cold Spring Harbor Laboratory)
  78. The biosphere
    Kent C. Condie · 2021 · Elsevier eBooks
  79. References
    2021 · Elsevier eBooks
  80. Anaerobic 3-Methylhopanoid Production By An Acidophilic Phototrophic Purple Bacterium
    Marisa H. Mayer, Mary Niki Parenteau, Megan L. Kempher, Michael T. Madigan, Linda L. Jahnke, Paula V. Welander · 2021 · Research Square
  81. Rhodomicrobium
    Johannes F. Imhoff · 2020 · Bergey's Manual of Systematics of Archaea and Bacteria
  82. Origins
    William H. Schlesinger, Emily S. Bernhardt · 2020 · Elsevier eBooks
  83. References
    2008 · CRC Press eBooks
  84. Eisengruppe: Elemente der achten Nebengruppe
    Hermann Sicius · 2019 · Springer eBooks
  85. References
    2020 · Elsevier eBooks
  86. Lagerstätten durch Sedimentation und Verwitterung
    Florian Neukirchen, Gunnar Ries · 2014 · Springer eBooks
  87. REFERENCES
    Edmundas Lekevičius · 2002 · Acta Zoologica Lituanica
  88. References
    2012 · Elsevier eBooks
  89. References
    2001 · Wiley eBooks
  90. Iron Oxidation
    Stephanie Ann Napieralski², Nathaniel W. Fortney, Eric Roden · 2019 · Encyclopedia of Astrobiology
  91. References
    2004 · Developments in precambrian geology
  92. References
    2013 · Elsevier eBooks
  93. References
    2005 · Elsevier eBooks
  94. Iron Formations
    Clark M. Johnson · 2017 · Encyclopedia of earth sciences series/Encyclopedia of earth sciences
  95. References
    2015 · Elsevier eBooks
  96. Line of Sight
    Daniel Rouan · 2011 · Encyclopedia of Astrobiology
  97. Lithotroph
    Charles S. Cockell · 2015 · Encyclopedia of Astrobiology
  98. Photoferrotrophy
    Casey C. Bryce, Andreas A. Kappler · 2019 · Encyclopedia of Astrobiology
  99. References
    2011 · Elsevier eBooks
  100. Genesis: early life survived in the Polar Circles by precipitating banded iron formation (~ 3.7–1.85 Ga) followed by stratified ferruginous siliciclasts until ~ 580 Ma, when tectonically shifted to lower latitudes initiating the ‘Cambrian Explosion’
    Zeev Lewy · 2022 · International Journal of Earth Sciences