Abstract
The content, optically determined properties, and stable isotope composition of organic carbon in fine-grained sediment cores were analyzed to investigate the origins of deep-sea sediments deposited in the Aceh forearc basin and on the Sunda trench floor off Sumatra from the late Pleistocene to the Holocene. In the Aceh basin, the depositional frequency of turbidite mud decreased as sea level rose during the deglaciation. The terrigenous organic carbon content was high at the end of the last glacial period, whereas during the deglaciation most of the organic carbon was of marine origin. In the Sunda trench, the Holocene turbidites consisted of remobilized slope sediments from two different sources: sediments derived from the old Bengal/Nicobar fan included thermally matured organic fragments, whereas those derived from the trench slope contained little terrigenous organic carbon.
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References
Bennett RH, Bryant WR, Hulbert MH et al (eds) (1991) Microstructure of fine-grained sediments, from mud to shale. Springer, New York
Curray JR, Moore DG (1974) Sedimentary and tectonic processes in the Bengal deep-sea fan and geosyncline. In: Burk CA, Drake CL (eds) The geology of continental margins. Springer, New York, pp 617–627
Curray JR, Emmel FJ, Moore DG (2003) The Bengal fan: morphology, geometry, stratigraphy, history and processes. Marine and Petroleum Geology 19:1191–1223
Deines P (1980) The isotopic composition of reduced organic carbon. In: Frits P, Fontes JC (eds) Handbook of environmental isotope geochemistry, vol 1. Elsevier, Amsterdam, pp 329–406
Fisher D, Mosher D, Austin JA, Gulick SPS, Masterlark T, Moran K (2007) Active deformation across the Sumatran forearc over the December 2004 M (W) 9.2 rupture. Geology 35:99–101
France-Lanord C, Apiess V, Klaus A, the Expedition 354 Scientists (2015) Bengal Fan, Neogene and late Paleogene record of Himalayan orogeny and climate: a transect across the Middle Bengal Fan. International Ocean Discovery Program Preliminary Report, p 354. doi:10.14379/iodp.pr.354.2015
Galy V, France-Lanord C, Peucker-Ehrenbrink B, Huyghe P (2010) Sr–Nd–Os evidence for a stable erosion regime in the Himalaya during the past 12 Myr. Earth and Planetary Science Letters 290:474–480
Gansser A (1964) Geology of the Himalayas. Intersciences Publishers, London
Goldfinger C, Yusuf SD, The shipboard Scientific research party (2007a) Paleoseismologic studies of the Sunda subduction zone. Oregon State University active tectonics laboratory, and Agency for the Assessment and Application of Technology, Indonesia
Goldfinger C, Morey AE, Nelson CH, Gutierrez-Pastor J, Johnson JE, Karabanov E, Chaytor J, Ericsson A (2007b) Rupture lengths and temporal history of significant earthquakes on the offshore and north coast segments of the northern San Andreas fault based on turbidite stratigraphy. Earth and Planetary Science Letters 254:9–27
Gulick SPS, Austin JA Jr, McNeill LC, Bangs NLB, Martin KM, Henstock TJ, Bull JM, Dean S, Djajadihardja YS, Permana H (2011) Updip rupture of the 2004 Sumatra earthquake extended by thick indurated sediments. Nature Geoscience 4:453–456
Han Z, Kruge MA, Crelling JC, Bensley DF (1999) Classification of torbanite and cannel coal, I. Insights from petrographic analysis of density fractions. International Journal of Coal Geology 38:181–202
Hoefs J, Frey M (1976) The isotopic composition of carbonaceous matter in a metamorphic profile from the Swiss alps. Geochimica et Cosmochimica Acta 40:945–951
Ingersoll RV, Suczek CA (1979) Petrology and provenance of Neogene sand from Nicobar and Bengal fans, DSDP sites 211 and 218. J Sediment Pet 49:1217–1228
Jasper JP, Gagosian RB (1990) The source and deposition of organic matter in the late quaternary pigmy basin, Gulf of Mexico. Geochimica et Cosmochimica Acta 54:1117–1132
Karig DE, Lawrence MB, Moore GF, Curray JR (1980) Structural framework of the fore-arc basin, NW Sumatra. Journal of the Geological Society of London 137:77–91
Kase Y, Sato M, Nishida N, Ito M, Mukti MM, Ikehara K, Takizawa S (2016) The use of microstructures for discriminating turbiditic and hemipelagic muds and mudstones. Sedimentology 63:2066–2086
Misawa A, Hirata K, Seeber L, Arai K, Nakamura Y, Rahardiawan R, Udrekh FT, Kinoshita M, Baba H, Kameo K, Adachi K, Sarukawa H, Tokuyama H, Permana H, Djajadihardja YS, Ashi J (2014) Geological structure of the offshore Sumatra forearc region estimated from high-resolution MCS reflection survey. Earth and Planetary Science Letters 386:41–51
Moore GF, Curray JR, Emmel FJ (1982) Sedimentation in the Sunda trench and Forearc region. Geological Society of London, Special Publication 10:245–258
Mosher DC, Austin JA, Fisher D, Gulick SPS (2008) Deformation of the northern Sumatra accretionary prism from high-resolution seismic reflection profiles and ROV observations. Marine Geology 252:89–99
Nakajima T (2006) Hyperpycnites deposited 700 km away from river mouths in the central Japan Sea. Journal of Sedimentary Research 76:60–73
Omura A, Ikehara K (2006) Relationship between variations of transportation processes to basin floor and coastal environments controlled by relative sea-level rise; an example from the Kumano trough and Ise Bay during the last deglaciation (in Japanese with English abstract). J Geol Soc Japan 112:122–135
Omura A, Ikehara K (2010) Deep-sea sedimentation controlled by sea-level rise during the last deglaciation, an example from the Kumano trough, Japan. Marine Geology 274:177–186
Omura A, Ikehara K (2014) Accumulation rate of organic carbon in hemipelagic mud, examples from the forearc basins along the Nankai trough Japan during the last glacial maximum to deglaciation (in Japanese with English abstract). J Sediment Soc Japan 73:121–135
Patton JR, Goldfinger C, Morey AE, Romsos C, Black B, Djajadihardja Y, Udrekh (2013) Seismoturbidite record as preserved at core sites at the Cascadia and Sumatra–Andaman subduction zones. Natural Hazards and Earth System Sciences 13:833–867
Patton JR, Goldfinger C, Morey AE, Ikehara K, Romsos C, Stoner J, Djadjadihardja Y, Udrekh AS (2015) A 6600 year earthquake history in the region of the 2004 Sumatra–Andaman subduction zone earthquake. Geosphere 11:2067–2129
Posamentier HW, Jervey MT, Vail PR (1988) Eustatic control on clastic deposition I – conceptual framework. Sea-level changes and integrated approach. SEPM Special Publication 42:109–124
Potter PE, Maynard JB, Depetris PJ (2005) Mud and mudstones: introduction and overview. Springer, New York
Rau GH, Sweeney RE, Kaplan IR (1982) Plankton 13C:12C ratio changes with latitude: differences between northern and southern oceans. Deep Sea Res 29:1035–1039
Sawada K, Akiyama M (1994) Carbon isotope compositions of macerals separated from various kerogens by density separation method (in Japanese with English abstract). J Japan Assoc Pet Technol 59:244–255
Schieber J, Ellwood BB (1993) Determination of basinwide paleocurrent patterns in a shale succession from anisotropy of magnetic susceptibility (AMS): a case study of the mid-Proterozoic Newland formation, Montana. J Sediment Pet 63:874–880
Seeber L, Mueller C, Fujiwara T, Arai K, Soh W, Djajadihardja YS, Cormier MH (2007) Accretion, masswasting, and portioned strain over the 26 December 2004 mw 9.2 rupture offshore Aceh, northern Sumatra. Earth and Planetary Science Letters 263:16–31
Senftle JT, Landis CR, McLaughlin RL (1993) Organic petrographic approach to kerogen characterization. In: Engel MH, Macko SA (eds) Organic geochemistry. Plenum Press, New York, pp 355–374
Shackleton NJ (2000) The 100,000-year ice-age cycle identified and found to lag temperature, carbon dioxide, and orbital eccentricity. Science 289:1897–1902
Showers W, Angle DG (1986) Stable isotopic characterization of organic carbon accumulation on the Amazon continental shelf. Continental Shelf Research 6:227–244
Sibuet J-C, Rangin C, Pichon XL, Singh S, Cattaneo A, Graindorge D, Klingelhoefer F, Lin J-Y, Malod J, Maury T, Schneider J-L, Sultan N, Umber M, Yamaguchi H, the “Sumatra aftershocks” team (2007) 26th December 2004 great Sumatra–Andaman earthquake: co-seismic and post-seismic motions in northern Sumatra. Earth and Planetary Science Letters 263:88–103
Sieh K, Natawidjaja D (2000) Neotectonics of the Sumatran fault, Indonesia. Journal of Geophysical Research 105:28295–28326
Soh W, Machiyama H, Hirata K, Araki E, Fujiwara T, Suyehiro K, Djajadihardja YS (2006) Discovery of surface break of the earthquake fault that initiated the Great Indian Ocean Tsunami in the Sumatra Andaman earthquake of 26 December 2004. American Geophysical Union, Fall Meeting 2006, abstract #U51B–06
Stuiver M, Reimer PJ, Bard E, Beck JW, Burr GS, Hughen KA, Kromer B, McCormac G, van der Plicht J, Spurk M (1998) INTCAL98 radiocarbon age calibration, 24,000–0 cal BP. Radiocarbon 40:1041–1083
Sultan N, Cattaneo A, Sibuet J-C, Schneider J-L, the Sumatra Aftershocks team (2009) Deep sea in situ excess pore pressure and sediment deformation off NW Sumatra and its relation with the December 26, 2004 great Sumatra-Andaman earthquake. International Journal of Earth Sciences 98:823–837
Teichmüller M (1989) The genesis of coal from the viewpoint of coal petrology. International Journal of Coal Geology 12:1–87
Tissot BP, Welte DH (1984) Petroleum formation and occurrence, 2nd edn. Springer, Heidelberg
Tyson RV (1995) Sedimentary organic matter, organic facies and palynofacies. Chapman & Hall, London
Vail PR (1987) Seismic stratigraphy interpretation using sequence stratigraphy. Part 1: seismic stratigraphy interpretation procedure. In: bally AW (ed) atlas of seismic stratigraphy, vol 1. Stud Geol Am Assoc Pet Geol 27:1–9
Walker RG (1992) Turbidite and submarine fans. In: Walker RG, James NP (eds) Facies models, Response to sea level change. Geol Assoc Canada, pp 239–263
Yokoyama K, Amano K, Taira A, Saito Y (1990) Mineralogy of silts from the Bengal fan. In: Cochran JR, stow DAV et al. (eds) proceedings of the ocean drilling program, Scientific results 116:59–73
Acknowledgements
We express our sincere thanks to the captains, officers, crews, and onboard scientists of cruises RR0705 of R/V Roger Revelle and MR07-07 of R/V Mirai for their assistance. We are grateful to Dr. C. Goldfinger, Dr. J. Patton, and Ms. A. Morey of Oregon State University, and to Dr. J. Ashi and Dr. K. Satake of the University of Tokyo for supporting this research. We thank Dr. T. Miyajima of the Atmosphere and Ocean Research Institute (AORI), the University of Tokyo, and Dr. M. Saito of the National Museum of Nature and Science Tokyo for help with the stable carbon isotope measurements. We also thank Ms. N. Saotome and Dr. Y. Yamada of AORI for help with the microscopic observations. This research was supported in part by KAKENHI Grant Number JP2540125 from the Japan Society for the Promotion of Science, KAKENHI Grant Number JP21107003 from the Ministry of Education, Culture, Sports, Science and Technology of Japan, as well as the Science and Technology Research Partnership for Sustainable Development (SATREPS) by the Japan Science and Technology Agency (JST), and the Japan International Cooperation Agency (JICA) project “Multi-disciplinary Hazard Reduction from Earthquakes and Volcanoes in Indonesia”. The article benefitted from assessments by an anonymous reviewer and the editors.
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Omura, A., Ikehara, K., Arai, K. et al. Determining sources of deep-sea mud by organic matter signatures in the Sunda trench and Aceh basin off Sumatra. Geo-Mar Lett 37, 549–559 (2017). https://doi.org/10.1007/s00367-017-0510-x
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DOI: https://doi.org/10.1007/s00367-017-0510-x