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44   ORGANIC MATTER‐RICH SHALE DEPOSITIONAL ENVIRONMENTS

            Sorby HC. On the application of quantitative methods to the study   Trabucho‐Alexandre J. Mesozoic Sedimentation in the North Atlantic
              of the structure and history of rocks. Quart J Geol Soc 1908;   and  Western  Tethys; Global Forcing Mechanisms and Local
              64:171–233.                                          Sedimentary Processes. Utrecht: Universiteit Utrecht; 2011.
            Southam JR, Peterson  WH, Brass GW. dynamics of anoxia.   Trabucho‐Alexandre J. More gaps than shale: erosion of mud and its
              Palaeogeogr Palaeoclim Palaeoecol 1982;40:183–198.   effect on preserved geochemical and palaeobiological signals. In:
            Southard JB. Representation of bed configurations in depth‐  Smith DG, Bailey RJ, Burgess PM, Fraser AJ, editors. Strata and
              velocity‐size diagrams. J Sediment Petrol 1971;41:903–915.  Time: Probing the Gaps in Our Understanding, vol. 404. London:
            Stanley SM.  Earth System History. New York:  W.H. Freeman &   Geological Society; 2014. DOI:10.1144/SP404.10.
              Company; 1999.                                     Trabucho‐Alexandre J, Tuenter E, Henstra GA, van der Zwan KJ, van
            Stein R. Organic carbon and sedimentation rate—further evidence   de Wal RSW, Dijkstra HA, de Boer PL. The mid‐Cretaceous North
              for anoxic deep‐water conditions in the Cenomanian/Turonian   Atlantic nutrient trap: black shales and OAEs. Paleoceanography
              Atlantic Ocean. Mar Geol 1986;72:199–209.            2010;25:PA4201.
            Stein  R.  Organic  carbon  content/sedimentation  rate  relationship   Trabucho‐Alexandre J, van Gilst RI, Rodríguez‐López JP, de Boer
              and its paleoenvironmental significance for marine sediments.   PL. The sedimentary expression of oceanic anoxic event 1b in
              Geo‐Marine Lett 1990;10:37–44.                       the North Atlantic. Sedimentology 2011;58:1217–1246.
            Storey M,  Duncan RA,  Swisher  CC. Paleocene‐Eocene  thermal   Trabucho‐Alexandre J, Dirkx R, Veld H, Klaver G, de Boer PL.
              maximum and the opening of the Northeast Atlantic. Science   Toarcian Black Shales in the Dutch Central Graben: record of
              2007;316:587–589.                                    energetic, variable depositional conditions during an oceanic
            Stow DAV. Fine‐grained sediments in deep water: an overview of   anoxic event. J Sediment Res 2012a;82:104–120.
              processes and facies models. Geo‐Mar Lett 1985a;5:17–23.  Trabucho‐Alexandre J, Hay WW, de Boer PL. Phanerozoic envi-
            Stow DAV. Deep‐sea clastics: where are we and where are we   ronments of black shale deposition and the Wilson Cycle. Solid
              going?”. In: Brenchley PJ, Williams BPJ, editors. Sedimentology:   Earth 2012b;3:29–42.
              Recent Developments and Applied Aspects. London: Geological   Trask PD. Origin and Environment of Source Sediments of Petroleum.
              Society; 1985b. p 67–93.                             Houston, TX: Gulf Publishing Company; 1932.
            Stow  DAV, Reading HG,  Collinson  JD. Deep  seas.  In:  Reading   Trusheim F. Rippeln in Schlick. Nat Museum 1929;59:72–79.
              HG, editor. Sedimentary Environments: Processes, Facies and   Twenhofel WH. Environments of origin of black shales. AAPG
              Stratigraphy. Oxford: Blackwell Publishing; 1996. p 395–453.  Bull 1939;23:1178–1198.
            Stow DAV, Huc A‐Y, Bertrand P. Depositional processes of black   Tyson RV. Sedimentation rate, dilution, preservation and total
              shales in deep water. Mar Petrol Geol 2001;18:491–498.  organic carbon: some results of a modelling study. Org Geochem
            Strøm KM. Land‐locked waters and the deposition of black muds.   2001;32:333–339.
              In: Trask PD, editor. Recent Marine Sediments. Tulsa: AAPG;   Tyson RV.  The “productivity versus preservation” controversy:
              1939. p 356–372.                                     cause, flaws, and resolution. In: Harris NB, editor.  The
            Suess E. Particulate organic carbon flux in the oceans—surface pro-  Deposition of Organic‐Carbon‐Rich Sediments: Models,
              ductivity and oxygen utilization. Nature 1980;288:260–263.  Mechanisms, and Consequences. Tulsa: SEPM; 2005. p 17–33.
            Summerhayes CP, de Melo U, Barretto HT. The influence of upwelling   van Andel TH, Thiede J, Sclater JG, Hay WW. Depositional his-
              on suspended matter and shelf sediments off Southeastern Brazil.   tory of the South Atlantic Ocean during the last 125 million
              J Sediment Petrol 1976;46:819–828.                   years. J Geology 1977;85:651–698.
            Talbot MR. The origins of lacustrine oil source rocks: evidence   van Straaten LMJU. Longitudinal ripple marks in mud and sand.
              from the lakes of tropical Africa. In: Fleet AJ, Kelts K, Talbot   J Sediment Petrol 1951;21:47–54.
              MR, editors.  Lacustrine  Petroleum Source  Rocks. London:   Van  Waterschoot van der Gracht  WAJM. Permo‐carboniferous
              Geological Society; 1988. p 29–43.                   orogeny in South‐Central United States.  AAPG Bull 1931;
            Talbot MR, Allen PA. Lakes. In: Reading HG, editor. Sedimentary   15:991–1057.
              Environments: Processes, Facies and Stratigraphy. Oxford:   Walker RG. Nondeltaic depositional environments in the Catskill
              Blackwell Publishing; 1996. p 83–124.                clastic wedge (Upper Devonian) of central Pennsylvania. Geol
            Terwindt JHJ, Breusers HNC. Experiments on the origin of flaser,   Soc Am Bull 1971;82:1305–1326.
              lenticular and sand‐clay alternating bedding. Sedimentology   Walsh JJ. Importance of continental margins in the marine biogeo-
              1972;19:85–98.                                       chemical cycling of carbon and nitrogen. Nature 1991;350:53–55.
            Tissot B. Effects on prolific petroleum source rocks and major coal   Walsh JP, Nittrouer CA. Understanding fine‐grained river‐sediment
              deposits caused by sea‐level changes. Nature 1979;277:463–465.  dispersal on continental margins. Marine Geol 2009;263:
            Topper RPM,  Trabucho‐Alexandre J,  Tuenter E, Meijer PT.  A   34–45.
              regional ocean circulation model for the mid‐Cretaceous North   Waples DW. Reappraisal of anoxia and organic richness, with
              Atlantic Basin: implications for black shale formation. Clim   emphasis on Cretaceous of North Atlantic. AAPG Bull 1983;
              Past 2011;7:277–297.                                 67:963–978.
            Tourtelot HA. Origin and use of the word “shale”.  Am J Sci   Weaver CE.  Clays, Muds, and Shales. Developments in
              1960;258‐A:335–343.                                  Sedimentology 44. Amsterdam: Elsevier; 1989.
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