Suboxic diagenesis in banded iron formations

Cited by (192)

Items 101–192 of 192

1. Geochemistry and origin of the Neoproterozoic Dahongliutan banded iron formation (BIF) in the Western Kunlun orogenic belt, Xinjiang (NW China)
   Jun Hu, He Wang, Min Wang · 2017 · Ore Geology Reviews
2. Carbon and hydrogen isotope fractionations associated with dissimilatory iron-reducing bacteria
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3. The anatomy of an early Dinantian terraced floodplain: palaeo‐environment and early diagenesis
   Julian E. Andrews, MICHAEL S. TURNER, GHULAM NABI, Baruch Felix Spiro · 1991 · Sedimentology
4. Microbial processes during deposition and diagenesis of Banded Iron Formations
   Carolin Dreher, Manuel Schad, Leslie J. Robbins, Kurt O. Konhauser, Andreas A. Kappler, Prachi Joshi · 2021 · Paläontologische Zeitschrift
5. Precambrian evolution of the climate system
   James C. G. Walker · 1990 · Global and Planetary Change
6. Dynamic sedimentation of Paleoproterozoic continental margin iron formation, Labrador Trough, Canada: Paleoenvironments and sequence stratigraphy
   Peir K. Pufahl, S. L. Anderson, Eric E. Hiatt · 2014 · Sedimentary Geology
7. Collaborative microbial Fe-redox cycling by pelagic floc bacteria across wide ranging oxygenated aquatic systems
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8. Iron Transformations by Freshwater Bacteria
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9. Carbon and hydrogen isotope fractionation during oxidation of methane by metal oxides at temperatures from 400° to 530°C
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10. Geochemistry of carbonate cements in the Sag River and Shublik Formations (Triassic/Jurassic), North Slope, Alaska: implications for the geochemical evolution of formation waters
    Peter S. Mozley, Kaj Hoernle · 1990 · Sedimentology
11. Siderite cannot be used as CO2 sensor for Archaean atmospheres
    Gäb, Fabian, Ballhaus, Chris, Siemens, Jan, Heuser, Alexander, Lissner, Moritz, Geisler, Thorsten, Garbe-Schönberg, Dieter · 2017 · Geochimica et Cosmochimica Acta
12. Chapter 10 Proterozoic Iron-Formations
    Cornelis Klein, Nicolas Johannes Beukes · 1992 · Developments in precambrian geology
13. How did the evolution of oxygenic photosynthesis influence the temporal and spatial development of the microbial iron cycle on ancient Earth?
    Manuel Schad, Kurt O. Konhauser, Patricia Sánchez‐Baracaldo, Andreas A. Kappler, Casey C. Bryce · 2019 · Free Radical Biology and Medicine
14. The Palaeoproterozoic Hotazel BIF-Mn Formation as an archive of Earth's earliest oxygenation
    Xolane Mhlanga, Harilaos Tsikos, B. Lee, Olivier J. Rouxel, Adrian C Boyce, Chris Harris, Timothy W. Lyons · 2023 · Earth-Science Reviews
15. Examples and genetic significance of the formation of iron oxides in the Nigerian banded iron-formations
    A. M�cke, A.E. Annor · 1993 · Mineralium Deposita
16. Temperature fluctuations in the Archean ocean as trigger for varve-like deposition of iron and silica minerals in banded iron formations
    Manuel Schad, Maximilian Halama, Brendan Bishop, Kurt O. Konhauser, Andreas A. Kappler · 2019 · Geochimica et Cosmochimica Acta
17. Biomineralization of a poorly crystalline Fe(III) oxide, akaganeite, by an anaerobic Fe(III)-reducing bacterium (Shewanella alga) isolated from marine environment
    Sang‐Han Lee, Insung Lee, Yul Roh · 2003 · Geosciences Journal
18. Hydrocarbon-induced magnetic contrasts in some Venezuelan and Colombian oil wells
    Vincenzo Costanzo-Alvarez, Milagrosa Aldana, Marisel Díaz, Germán Bayona, Carolina Ayala · 2006 · Earth Planets and Space
19. Banded Iron Formation
    Aleksandra M. Mloszewska, Rasmus Nielsen Haugaard, Ernesto Pecoits A, Kurt O. Konhauser · 2014 · Encyclopedia of Astrobiology
20. Oxygen production and rapid iron oxidation in stromatolites immediately predating the Great Oxidation Event
    Andy W. Heard, Andrey Bekker, Alex Kovalick, Harilaos Tsikos, Thomas J. Ireland, Nicolas Dauphas · 2022 · Earth and Planetary Science Letters
21. The Ancient Anoxic Biosphere Was Not As We Know It
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22. Banded Iron Formations
    Nicole R. Posth, Kurt O. Konhauser, Andreas A. Kappler · 2011 · Encyclopedia of earth sciences series/Encyclopedia of earth sciences
23. A thermodynamic model for water column precipitation of siderite in the Plio-Pleistocene Black Sea
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24. A new appraisal of depositional cyclicity in the Neoarchean-Paleoproterozoic Dales Gorge Member (Brockman Iron Formation, Hamersley Basin, Australia)
    Pillar de Oliveira Carvalho Rodrigues, Linda A. Hinnov, Daniel Ribeiro Franco · 2019 · Precambrian Research
25. Insights into the processes and controls on the absolute abundance and distribution of manganese in Precambrian iron formations
    Mehrnaz Siahi, Harilaos Tsikos, Sipesihle Rafuza, Paul B.H. Oonk, Xolane Mhlanga, D. van Niekerk, Paul R.D. Mason, Chris Harris · 2020 · Precambrian Research
26. The Proposed Molecular Mechanisms Used by Archaea for Fe(III) Reduction and Fe(II) Oxidation
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27. Possible biological origin of banded iron — Formations from hydrothermal solutions
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28. The Fate of Sedimentary Reactive Iron at the Land‐Ocean Interface: A Case Study From the Amazon Shelf
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29. Iron and phosphorus biochemical systems and the Cryogenian-Ediacaran transition, Jacadigo basin, Brazil: Implications for the Neoproterozoic oxygenation event
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30. Potential importance of dissimilatory Fe(III)-reducing microorganisms in hot sedimentary environments
    Kazem Kashefi, Dawn E. Holmes, Derek R. Lovley, Jason M. Tor · 2004 · Geophysical monograph
31. One-Step Route Synthesis of Siliceous Six-Line Ferrihydrite: Implication for the Formation of Natural Ferrihydrite
    Seungyeol Lee, Huifang Xu · 2019 · ACS Earth and Space Chemistry
32. Anaerobic microbial activity affects earliest diagenetic pathways of bivalve shells
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33. Microbial Fe cycling in a simulated Precambrian ocean environment: Implications for secondary mineral (trans)formation and deposition during BIF genesis
    Manuel Schad, James M. Byrne, Laurel K. ThomasArrigo, Ruben Kretzschmar, Kurt O. Konhauser, Andreas A. Kappler · 2022 · Geochimica et Cosmochimica Acta
34. Sulphur, carbon and oxygen isotope studies of early Variscan mineralisation and Pb-Sb vein deposits in the Cornubian orefield: implications for the scale of fluid movements during Variscan deformation
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35. Arsenic regeneration from estuarine sediments of the Bothnian Bay, Sweden
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36. The formation of magnetite ores of the Glubochenskoe deposit, Turgai iron belt, Russia: new structural, mineralogical, geochemical, and isotopic constraints
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37. Exploring the secondary mineral products generated by microbial iron respiration in Archean ocean simulations
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38. Simulated diagenesis of the iron-silica precipitates in banded iron formations
    Isaac L. Hinz, Leanne Rossi, Chi Ma, Jena E. Johnson · 2023 · American Mineralogist
39. Stable isotope geochemistry of early Protezozoic carbonate concretions in the Animikie group of the Lake Superior region: evidence for anaerobic bacterial processes
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40. Metal concentrations in surficial sediments from hypersaline lakes, Australia
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41. Iron isotope geochemistry of biogenic magnetite-bearing sediments from the Bay of Vidy, Lake Geneva
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42. Morphological and chemical evidence of stromatolitic deposits in the 2.75Ga Carajás banded iron formation, Brazil
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43. Evolution of Metabolism
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44. Bacteria forge a new link
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45. Microbes Pumping Iron: Anaerobic Microbial Iron Oxidation and Reduction
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46. Microbial Metal Cycling in Aquatic Environments
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47. Isotopic Constraints on the Nature of Primary Precipitates in Archean–Early Paleoproterozoic Iron Formations from Determinations of the Iron Phonon Density of States of Greenalite and 2L- and 6L-Ferrihydrite
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48. Lithological and geochemical evidence of Fe and Mn pathways during deposition of Lower Proterozoic banded iron formation in the Krivoy Rog Basin (Ukraine)
    Dmitrii A. Kulik, Michael N. Korzhnev · 1996 · Geological Society London Special Publications
49. The melting of subducted banded iron formations
    Nathan Kang, Max Werner Schmidt · 2017 · Earth and Planetary Science Letters
50. Iron reduction by a psychrotolerant Fe(III)-reducing bacterium isolated from ocean sediment
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51. Fractionation of manganese from iron in Archaean and Proterozoic sedimentary ores
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52. Microbial Transhalogenation: A Complicating Factor in Determination of Atmospheric Chloro- and Bromomethane Budgets
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53. Carbon isotope stratigraphy of Precambrian iron formations and possible significance for the early biological pump
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56. Development of bioanodes rich in exoelectrogenic bacteria using iron-rich palaeomarine sediment inoculum
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58. The genesis of the early Neoproterozoic Shilu banded iron formations: Could it be applied to other iron ore deposits?
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59. Isolation and physiology of a manganese-reducing Bacillus polymyxa from an Oligocene silver-bearing ore and sediment with reference to Precambrian biogeochemistry
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62. Impact of silica on the identity of minerals formed in Archean oceans during Fe cycling by cyanobacteria and iron(III)-reducing bacteria
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63. A brief discussion on the depositional and metamorphic mineralization of Precambrian banded iron formations
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65. Reprint of "The Gongchangling BIFs from the Anshan–Benxi area, NE China: Petrological–geochemical characteristics and genesis of high-grade iron ores"
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70. Major Factors Affecting the Isotopic Measurement of Chlorine Based on the Cs2Cl+ Ion by Thermal Ionization Mass Spectrometry
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71. Carbon isotope distribution in organic matter and siderite of a modern metalliferous hydrothermal sediment and possible implications for gold associated with banded iron formation
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72. Multi-technique characterization of iron reduction by an Antarctic Shewanella : an analog system for putative Martian biosignature identification
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77. Paleoenvironmental reconstruction of the Griquatown Granular Iron Formation, South Africa, and its implications for the Great Oxidation Event
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83. Physiological and Mechanistic Studies of Phototrophic Fe(II) Oxidation in Purple Non-sulfur Bacteria
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85. Marine Fe cycling linked to dynamic redox variability, biological activity and post-depositional mineralization in the 1.1 Ga Mesoproterozoic Taoudeni Basin, Mauritania
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87. Distinct Fracture Mineralogy That is Out of Equilibrium With Modern Groundwaters Provides Important Context for Subsurface Life
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88. Réactivité géomicrobiologique des matériaux et minéraux ferrifères : impact sur la sureté d'un stockage de déchets radioactifs en milieux argileux
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90. Experimental Modeling of Mantle Metasomatic Processes Involving Carbon- and Sulfur-Bearing Agents in an Olivine–Siderite–Sulfur System at Early-Subduction Mantle Conditions
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92. Interaction of siderite with sulfur-rich fluids at mantle as a model for diamond formation in the Precambrian
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