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A. Croci, G. Porta, E. Capezzuoli (2016)
Depositional architecture of a mixed travertine-terrigenous system in a fault-controlled continental extensional basin (Messinian, Southern Tuscany, Central Italy)Sedimentary Geology, 332
A. Gandin, E. Capezzuoli (2014)
Travertine: Distinctive depositional fabrics of carbonates from thermal spring systemsSedimentology, 61
P. Gautret, J. Trichet (2005)
Automicrites in modern cyanobacterial stromatolitic deposits of Rangiroa, Tuamotu Archipelago, French Polynesia: Biochemical parameters underlaying their formationSedimentary Geology, 178
W. Krumbein (1975)
Biogenic monohydrocalcite spherules in lake sediments of Lake Kivu (Africa) and the Solar Lake (Sinai)Sedimentology, 22
R. Halley (1976)
Chapter 8.5 Textural Variation Within Great Salt Lake Algal MoundsDevelopments in sedimentology, 20
C. Dupraz, R. Reid, O. Braissant, A. Decho, R. Norman, P. Visscher (2009)
Processes of carbonate precipitation in modern microbial matsEarth-Science Reviews, 96
Yan Pan, Xu Zhao, Ye Sheng, Chengyun Wang, Yanhui Deng, Xiaokun Ma, Y. Liu, Zichen Wang (2007)
Biomimetic synthesis of dendrite-shaped aragonite particles with single-crystal feature by polyacrylic acidColloids and Surfaces A: Physicochemical and Engineering Aspects, 297
T. Okumura, C. Takashima, F. Shiraishi, Akmaluddin, A. Kano (2012)
Textural transition in an aragonite travertine formed under various flow conditions at Pancuran Pitu, Central Java, IndonesiaSedimentary Geology, 265
A. Decho (1990)
Microbial exopolymer secretions in ocean environments: their role(s) in food webs and marine processesOceanography and Marine Biology, 28
J. Kennard, N. James (1986)
Thrombolites and stromatolites; two distinct types of microbial structuresPALAIOS, 1
F. Shiraishi, Yusaku Hanzawa, T. Okumura, N. Tomioka, Y. Kodama, H. Suga, Y. Takahashi, A. Kano (2017)
Cyanobacterial exopolymer properties differentiate microbial carbonate fabricsScientific Reports, 7
Chiya Sugihara, K. Yanagawa, T. Okumura, C. Takashima, A. Harijoko, A. Kano (2016)
Transition of microbiological and sedimentological features associated with the geochemical gradient in a travertine mound in northern Sumatra, IndonesiaSedimentary Geology, 343
O. Braissant, A. Decho, Kristen Przekop, Kimberley Gallagher, Christina Glunk, C. Dupraz, P. Visscher (2009)
Characteristics and turnover of exopolymeric substances in a hypersaline microbial mat.FEMS microbiology ecology, 67 2
V. Wright (2007)
The significance of needle‐fibre calcite in a Lower Carboniferous palaeosolGeological Journal, 19
AS Alsharhan (2003)
91Earth-Sci Rev, 61
C. Dupraz, P. Visscher (2005)
Microbial lithification in marine stromatolites and hypersaline mats.Trends in microbiology, 13 9
A. Pentecost (1990)
The formation of travertine shrubs: Mammoth Hot Springs, WyomingGeological Magazine, 127
H. Chafetz, Chris Buczynski (1992)
Bacterially Induced Lithification of Microbial MatsPALAIOS, 7
G. Arp, A. Reimer, J. Reitner (2003)
Microbialite Formation in Seawater of Increased Alkalinity, Satonda Crater Lake, IndonesiaJournal of Sedimentary Research, 73
H. Claes, M. Degros, J. Soete, S. Claes, S. Kele, A. Mindszenty, Ágnes Török, H. Desouky, F. Vanhaecke, R. Swennen (2017)
Geobody architecture, genesis and petrophysical characteristics of the Budakalász travertines, Buda Hills (Hungary)Quaternary International, 437
G Arp (1999)
159Sediment Geol, 126
I. Sutherland (2001)
The biofilm matrix--an immobilized but dynamic microbial environment.Trends in microbiology, 9 5
J. Kazmierczak, S. Kempe (2006)
Genuine modern analogues of Precambrian stromatolites from caldera lakes of Niuafoʻou Island, TongaNaturwissenschaften, 93
R. Folk, H. Chafetz, Pamela Tiezzi (1985)
Bizarre forms of Depositional and Diagenetic Calcite in Hot-Spring Travertines, Central Italy
X. Villagran, R. Poch (2014)
A new form of needle-fiber calcite produced by physical weathering of shellsGeoderma, 213
H. Chafetz, S. Guidry (1999)
Bacterial shrubs, crystal shrubs, and ray-crystal shrubs: bacterial vs. abiotic precipitationSedimentary Geology, 126
L. Benson (1994)
Carbonate deposition, Pyramid Lake subbasin, Nevada: 1. Sequence of formation and elevational distribution of carbonate deposits (Tufas)Palaeogeography, Palaeoclimatology, Palaeoecology, 109
R. Folk (1959)
Practical petrographic classification of limestonesAAPG Bulletin, 43
A. Decho (2010)
Overview of biopolymer-induced mineralization: What goes on in biofilms?Ecological Engineering, 36
Li Guo, R. Riding (1992)
Microbial micritic carbonates in uppermost Permian reefs, Sichuan Basin, southern China: some similarities with Recent travertinesSedimentology, 39
H. Flemming (1995)
Sorption sites in biofilmsWater Science and Technology, 32
R. Riding (2008)
Abiogenic, microbial and hybrid authigenic carbonate crusts: components of Precambrian stromatolitesGeologia Croatica, 61
B. Jones, R. Renaut, R. Owen, Helgi Torfason (2005)
Growth patterns and implications of complex dendrites in calcite travertines from Lýsuhóll, Snæfellsnes, IcelandSedimentology, 52
C. Takashima, T. Okumura, S. Nishida, H. Koike, A. Kano (2011)
Bacterial symbiosis forming laminated iron‐rich deposits in Okuoku‐hachikurou hot spring, Akita Prefecture, JapanIsland Arc, 20
H. Chafetz, P. Rush, N. Utech (1991)
Microenvironmental controls on mineralogy and habit of CaCO3 precipitates: an example from an active travertine systemSedimentology, 38
É. Verrecchia, P. Freytet, Karin Verrecchia, J. Dumont (1995)
Spherulites in calcrete laminar crusts; biogenic CaCO 3 precipitation as a major contributor to crust formationJournal of Sedimentary Research, 65
F. Ferris, S. Schultze, T. Witten, W. Fyfe, T. Beveridge (1989)
Metal Interactions with Microbial Biofilms in Acidic and Neutral pH EnvironmentsApplied and Environmental Microbiology, 55
G. Arp, V. Thiel, A. Reimer, W. Michaelis, J. Reitner (1999)
Biofilm exopolymers control microbialite formation at thermal springs discharging into the alkaline Pyramid Lake, Nevada, USASedimentary Geology, 126
I. Sutherland (1990)
Biotechnology of microbial exopolysaccharides: Contents
R. Dunham (1962)
Classification of Carbonate Rocks According to Depositional Textures, 38
J. Braga, J. Martín, R. Riding (1995)
Controls on microbial dome fabric development along a carbonate-siliciclastic shelf-basin transect, Miocene, SE SpainPALAIOS, 10
Li Guo, R. Riding (1998)
Hot‐spring travertine facies and sequences, Late Pleistocene, Rapolano Terme, ItalySedimentology, 45
R. Burne, L. Moore (1987)
Microbialites; organosedimentary deposits of benthic microbial communitiesPALAIOS, 2
P Anadón (2013)
1128Sedimentology, 60
J. Dravis (1983)
Hardened Subtidal Stromatolites, BahamasScience, 219
P. Ford, A. Cockbain (1976)
Chapter 8.2 Modern Algal Stromatolites at Hamelin Pool, A Hypersaline Barred Basin in Shark Bay, Western AustraliaDevelopments in sedimentology, 20
Chris Buczynski, H. Chafetz (1991)
Habit of bacterially induced precipitates of calcium carbonate and the influence of medium viscosity on mineralogyJournal of Sedimentary Research, 61
A. Pentecost, S. Bayarı, Cahit Yeşertener (1997)
Phototrophic microorganisms of the Pamukkale travertine, Turkey: Their distribution and influence on travertine depositionGeomicrobiology Journal, 14
E. Flügel (2004)
Microfacies of Carbonate Rocks: Analysis, Interpretation and Application
B. Jones, R. Renaut (1995)
Noncrystallographic Calcite Dendrites from Hot-Spring Deposits at Lake Bogoria, KenyaJournal of Sedimentary Research, 65
C. Monty (1976)
Chapter 5.1 The Origin and Development of Cryptalgal FabricsDevelopments in sedimentology, 20
P. Anadón, C. Canet, W. Friedrich (2013)
Aragonite stromatolitic buildups from Santorini (Aegean Sea, Greece): Geochemical and palaeontological constraints of the caldera palaeoenvironment prior to the Minoan eruption (ca 3600 yr bp)Sedimentology, 60
E. Shinn, R. Lloyd, R. Ginsburg (1969)
Anatomy of a Modern Carbonate Tidal-flat, Andros Island, BahamasJournal of Sedimentary Research, 39
B. Jones, R. Renaut, M. Rosen (2000)
Trigonal Dendritic Calcite Crystals Forming from Hot Spring Waters at Waikite, North Island, New ZealandJournal of Sedimentary Research, 70
Y. Kitano (1963)
Geochemistry of calcareous deposits found in hot springsThe Journal of earth sciences, Nagoya University, 11
É. Verrecchia, Karin Verrecchia (1994)
Needle-fiber Calcite: A Critical Review and a Proposed ClassificationJournal of Sedimentary Research, 64
B. Jones, R. Renaut (2008)
Cyclic development of large, complex, calcite dendrite crystals in the Clinton travertine, Interior British Columbia, CanadaSedimentary Geology, 203
Yuya and, H. Imai (2003)
Experimental Demonstration for the Morphological Evolution of Crystals Grown in Gel MediaCrystal Growth & Design, 3
B. Jones, R. Renaut (1996)
Skeletal crystals of calcite and trona from hot-spring deposits in Kenya and New ZealandJournal of Sedimentary Research, 66
G Arp (2003)
105J Sediment Res, 73
A. Kano, T. Kawai, J. Matsuoka, T. Ihara (2004)
High-resolution records of rainfall events from clay bands in tufaGeology, 32
C. Takashima, A. Kano, T. Naganuma, K. Tazaki (2008)
Laminated Iron Texture by Iron-Oxidizing Bacteria in a Calcite TravertineGeomicrobiology Journal, 25
H. Danielli, M. Edington (1983)
Bacterial calcification in limestone cavesGeomicrobiology Journal, 3
Guo Li, J. Andrews, R. Riding, P. Dennis, Q. Dresser (1996)
Possible Microbial Effects on Stable Carbon Isotopes in Hot-spring TravertinesJournal of Sedimentary Research, 66
C. Takashima, A. Kano (2008)
Microbial processes forming daily lamination in a stromatolitic travertineSedimentary Geology, 208
B. Purser, J. Loreau (1973)
Aragonitic, Supratidal Encrustations on the Trucial Coast, Persian Gulf
H. Chafetz, R. Folk (1984)
Travertines: Depositional Morphology and the Bacterially Constructed ConstituentsJournal of Sedimentary Research, 54
T. Kawaguchi, A. Decho (2002)
A laboratory investigation of cyanobacterial extracellular polymeric secretions (EPS) in influencing CaCO3 polymorphismJournal of Crystal Growth, 240
S. Stroitelev (1966)
Two Types of Skeletal Crystals
R. Beck, J. Andreassen (2012)
The influence of crystallization conditions on the onset of dendritic growth of calcium carbonateCrystal Research and Technology, 47
O. Braissant, A. Decho, C. Dupraz, Christina Glunk, Kristen Przekop, P. Visscher (2007)
Exopolymeric substances of sulfate‐reducing bacteria: Interactions with calcium at alkaline pH and implication for formation of carbonate mineralsGeobiology, 5
R. Warthmann, Y. Lith, C. Vasconcelos, J. Mckenzie, A. Karpoff (2000)
Bacterially induced dolomite precipitation in anoxic culture experimentsGeology, 28
R. Bates, J. Jackson (1987)
Glossary of Geology
T. Okumura, C. Takashima, F. Shiraishi, S. Nishida, A. Kano (2013)
Processes Forming Daily Lamination in a Microbe-Rich Travertine Under Low Flow Condition at the Nagano-yu Hot Spring, Southwestern JapanGeomicrobiology Journal, 30
R. Riding (2000)
Microbial carbonates: the geological record of calcified bacterial–algal mats and biofilmsSedimentology, 47
F. Shiraishi, Kohei Nakao, C. Takashima, A. Kano, T. Itai (2018)
Fe(II) oxidation processes at the surface of bacterially colonized iron depositsChemical Geology, 476
T. Okumura, C. Takashima, F. Shiraishi, S. Nishida, K. Yukimura, T. Naganuma, H. Koike, G. Arp, A. Kano (2011)
Microbial Processes Forming Daily Lamination in an Aragonite Travertine, Nagano-yu Hot Spring, Southwest JapanGeomicrobiology Journal, 28
F. Meldrum, S. Hyde (2001)
Morphological influence of magnesium and organic additives on the precipitation of calciteJournal of Crystal Growth, 231
A. Alsharhan, C. Kendall (2003)
Holocene coastal carbonates and evaporites of the southern Arabian Gulf and their ancient analoguesEarth-Science Reviews, 61
Deena Braunstein, D. Lowe (2001)
Relationship between Spring and Geyser Activity and the Deposition and Morphology of High Temperature (> 73°C) Siliceous Sinter, Yellowstone National Park, Wyoming, U.S.A.Journal of Sedimentary Research, 71
[Sediment bodies of travertine exhibit unique geomorphology that results from its rapid sedimentation rate. As described in Chap. 2 and will be discussed in Chap. 6, the rapid sedimentation rate is closely associated with rapid CO2 degassing from water, which elevates the level of supersaturation with respect for CaCO3. Intensity of the CO2 degassing is generally related with hydrological conditions: more CO2 degassing in turbulent conditions. Therefore, rapidly flowing water is a site of active deposition in travertine settings. This is a distinct difference from an ordinary fluvial sedimentary system, in which rapidly flowing water generally erodes sediment. In travertine systems, erosion is an unusual process unless flow rate is excessively developed by some reasons like flooding. In our study in Pancuran Pitu in Indonesia, a flow rate of 2 m/s is not enough to erode travertine (Okumura et al. 2012). Initially depressed watercourse is filled up, and the watercourse shifts to flow along a newly developed depressed route (Fig. 3.1). Sedimentation of travertine usually occurs at the interface of water and sediment substrate. The substrate is normally preexisted travertine but can be sedimentary grains. Mode of sedimentation is therefore accretion of newly precipitated crystals of calcite or aragonite and somehow similar with coral reef crest where a sediment body grows forward by mineral secretion of reef corals.]
Published: Sep 21, 2018
Keywords: Rapid Sedimentation Rate; Coral Reef Crest; Thrombolites; Dendrolites; Travertine Surface
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