Geologische Rundschau

, Volume 82, Issue 2, pp 212–226 | Cite as

Application of sequence and genetic stratigraphic concepts to Carboniferous coal-bearing strata: an example from the Black Warrior basin, USA

  • Robert A. Gastaldo
  • Timothy M. Demko
  • Yuejin Liu
Article

Abstract

Carboniferous strata provide an excellent example on which to test the application of genetic stratigraphic and sequence stratigraphic concepts. Both approaches are employed in the evaluation of the coal-bearing strata of the Black Warrior basin, south-eastern USA. Bounding hiatal surfaces have been recognized in the succession of rock that includes the Mary Lee coal zone. Within the framework of genetic stratigraphy, one genetic sequence has been identified comprised of offlap (progradational and aggradational facies) and onlap (aggradational and transgressive facies) components. Seven parasequence sets have been delimited according to the concepts of sequence stratigraphy. These have been ascribed to transgressive, highstand and shelf margin systems tracts. The identification of components of these contrasting frameworks provide the basis for evaluating other Carboniferous strata.

Key words

Sequence stratigraphy Coal-bearing strata Black Warrior basin, USA 

Preview

Unable to display preview. Download preview PDF.

Unable to display preview. Download preview PDF.

References

  1. Bergman KM, Walker RG (1987) The importance of sea-level fluctuations in the formation of linear conglomerate bodies, Carrot Creek Member of Cardium Formation, Cretaceous western interior seaway, Alberta, Canada. J Sedim Petrel 57: 651–665Google Scholar
  2. Butts C (1926) Paleozoic rocks. In: Adams GI, Butts C, Stephenson LW Cooke W (eds) Geology of Alabama. Geol Surv Alabama Spec Rep No 14: 41–230Google Scholar
  3. Cecil CB (1990) Paleoclimate controls on stratigraphic repetition of chemical and siliciclastic rocks. Geology 18: 533–536Google Scholar
  4. Cross T (1989) Controls on coal distribution in transgressive-regressive cycles, Upper Cretaceous, western Interior, U.S.A. In: Wilgus CK, Hastings BS, Kendall CGStC, Posamentier HW, Ross CA, Van Wagoner JC (eds) Sea-level Changes: an Integrated Approach. Spec Publ Soc Econ Paleontol Mineral No 42: 371–380Google Scholar
  5. Curtis CD, Petrowski C, Oertel G (1972) Stable carbon isotope ratios within carbonate concretions: a clue to place and time of formation. Nature 235: 98–100Google Scholar
  6. Demko TM (1990) Depositional environments of the lower Mary Lee coal zone, Lower Pennsylvanian “Pottsville” Formation, northwestern Alabama. In: Gastaldo RA, Demko TM, Liu Y (eds) Carboniferous Coastal Environments and Paleocommunities of the Mary Lee Coal Zone, Marion and Walker Counties, Alabama. Geological Survey of Alabama, Tuscaloosa: 5–20Google Scholar
  7. Demko TM, Gastaldo RA (1992) Paludal environments of the Mary Lee coal zone, Pottsville formation, Alabama: stacked elastic swamps and peat mires. Int J Coal Geol 20: 23–47Google Scholar
  8. Demko TM, Gastaldo RA. Tide-influenced depositional environments in the Upper Pottsville Formation, Warrior Basin, Alabama: nearshore sand bodies and inshore tidal flats, in preparationGoogle Scholar
  9. Demko TM, Jirikowic J, Gastaldo RA (1991) Tidal cyclicity in the Pottsville Formation, Warrior basin, Alabama: sedimentology and time-series analysis of a rhythmically laminated sandstone-mudstone interval. Geol Soc Am Abstr Progr 23 (5): A287Google Scholar
  10. Eble CF, Gastaldo RA, Demko TM, Liu Y. in press Coal compositional changes along an inferred swamp margin to swamp interior transect in the Mary Lee coal bed, Warrior basin, Alabama, U.S.A., Int J Coal GeolGoogle Scholar
  11. Everts CH (1987) Continental shelf evolution in response to a rise in sea level. In: Nummedal D, Pilkey OH, Howard JD (eds) Sea-level Fluctuation and Coastal Evolution. Spec Publ Soc Econ Paleontol Mineral No 41: 223–239Google Scholar
  12. Ferm JC, Ehrlich RL (1967) Petrology and stratigraphy of the Alabama coals. In: Ferm JC, Ehrlich RL, Neathery T (eds) A Field Guide to Carboniferous Detrital Rocks in Northern Alabama. Geol Soc Am Coal Division, 1967 Field Trip: 11–15Google Scholar
  13. Galloway WE (1989) Genetic stratigraphy sequences in basin analysis 1: architecture and genesis of flooding-surface bounded depositional units. Am Assoc Petrol Geol Bull 73: 125–142Google Scholar
  14. Gastaldo RA (1986) Implications on the paleoecology of authochthonous Carboniferous lycopods in clastic sedimentary environments. Palaeogeogr Palaeoclimatol Palaeoecol 53: 191–212Google Scholar
  15. Gastaldo RA (1992) Regenerative growth in fossil horsetails following burial by alluvium. Histor Biol 6: 203–220Google Scholar
  16. Gastaldo RA, Demko TM, Liu Y (1990) Carboniferous Coastal Environments and Paleocommunities of the Mary Lee coal zone, Marion and Walker Counties, Alabama. Geological Survey of Alabama, Tuscaloosa: 124 ppGoogle Scholar
  17. Gastaldo RA, Demko TM, Liu Y (1991) A mechanism to explain persistent alternation of clastic and peat-accumulating swamps in Carboniferous sequences. Bull Soc Geol Fr 162: 155–161Google Scholar
  18. Gautier DL (1982) Siderite concretions as indicators of early diagenesis in the Gammon Shale (Cretaceous). J Sedim Petrol 52: 59–871Google Scholar
  19. Gibson MA (1990) Common macroinvertebrates associated with the Mary Lee coal zone (Pennsylvanian, Upper Pottsville Formation, northern Alabama). In: Gastaldo RA, Demko TM, Liu Y (eds) Carboniferous Coastal Environments and Paleocommunities of the Mary Lee Coal Zone, Marion and Walker Counties, Alabama. Geological Survey of Alabama, Tuscaloosa: 97–104Google Scholar
  20. Gibson MA, Gastaldo RA (1987) Invertebrate paleoecology of the Upper Cliff Coal Interval (Pennsylvanian), Plateau Coal Field, northern Alabama. J Paleontol 61: 339–350Google Scholar
  21. Gillespie WH, Rheams LA (1985) Plant megafossils from the Carboniferous of Alabama, U.S.A. In: Escobeda JL, Granádos LF, Melndez B, Pignatelli R, Ray R, Wagner RH (eds) Diéxime Congrés International de Stratigraphie et de Géologie du Carbonifere. Vol. 2: 191–202Google Scholar
  22. Haas C, Gastaldo RA (1986) Flood tidal deltas and related back-barrier systems: Bremen Sandstone, “Pottsville” Formation, Black Warrior Basin, Alabama. Geol Soc Am Centennial Field Guide-Southeastern Section No 40: 181–183Google Scholar
  23. Hewitt JL (1984) Geologic overview, coal, and coalbed methane resources of the Warrior Basin — Alabama and Mississippi. In: Rightmire CT, Eddy GE, Kirr JN (eds) Coalbed Methane Resources of the United States. Am Assoc Petrol Geol Stud Geol Ser No 17: 73–104Google Scholar
  24. Joeckel RM (1989) Geomorphology of a Pennsylvanian land surface: pedogenesis in the Rock Lake Shale Member, southeastern Nebraska. J Sedim Petrol 59: 469–481Google Scholar
  25. Kidd JT (1982) Structural geology of the Black Warrior basin in Alabama. In: Benson J, Rheams LA (eds) Depositional Setting of the Pottsville Formation in the Black Warrior Basin. 19th Field Trip Guidebook of the Alabama Geological Society: 27–34Google Scholar
  26. Klein G de V (1990) Pennsylvanian time scales and cycle periods. Geology 18: 455–457Google Scholar
  27. Klein G de V, Kupperman JB (1992) Pennsylvanian cyclothems: methods of distinguishing tectonically induced changes in sea level from climatically induced changes. Geol Soc Am Bull 104: 166–175Google Scholar
  28. Klein G de V, Willard DA (1989) The origin of the Pennsylvanian coal-bearing cyclothems of North America. Geology 17: 152–155Google Scholar
  29. Kuecher GJ, Woodland BG, Broadhurst FM (1990) Evidence of deposition from individual tides and of tidal cycles from the Francis Creek Shale (host rock to the Mazon Creek Biota), Westphalian D (Pennsylvanian), northeastern Illinois. Sedim Geol 68: 211–221Google Scholar
  30. Kvale EP, Archer AW (1990) Tidal deposits associated with low-sulfur coals, Brazil Formation (Lower Pennsylvanian), Indiana. J Sedim Petrol 60: 563–574Google Scholar
  31. Kvale EP, Archer AW, Johnson HR (1989) Daily, monthly, and yearly tidal cycles within laminated siltstones (Mansfield Formation: Pennsylvanian) of Indiana. Geology 17: 365–368Google Scholar
  32. Larne DK, Martinez PA (1989) Use of bed-form climb models to analyze geometry and preservation potential of clastic facies and erosional surfaces. Am Assoc Petrol Geol Bull 73: 40–53Google Scholar
  33. Liu Y (1990) Depositional environments of the upper Mary Lee coal zone, Lower Pennsylvanian “Pottsville” Formation, northwestern Alabama. In: Gastaldo RA, Demko TM, Liu Y (eds) Carboniferous Coastal Environments and Paleocommunities of the Mary Lee Coal Zone, Marion and Walker Counties, Alabama. Geological Survey of Alabama, Tuscaloosa: 21–39Google Scholar
  34. Liu Y, Gastaldo RA (1992a) Characteristics and provenance of log-transported gravels in a Carboniferous channel deposit. J Sedim Petrol, 62: 1072–1083Google Scholar
  35. Liu Y, Gastaldo RA (1992b) Characteristics of a Pennsylvanian ravinement surface. Sedim Geol 77: 197–214Google Scholar
  36. Lyons PC, Meissener CR, Jr, Barwood HL, Adinol6 FG (1985) Megafloral sequence and North American and European correlation of the upper part of the Pottsville Formation of the Warrior coal field, Alabama, U.S.A. In: Escobeda JL, Granádos LF, Melndez B, Pignatelli R, Ray R, Wagner RH (eds) Diéxime Congrés International de Stratigraphie et de Géologie du Carbonifére. Vol. 2: 203–245Google Scholar
  37. McCabe P (1984) Depositional environments of coal and coal-bearing strata. In: Rahmani RA, Flores RM (eds) Sedimentology of Coal and Coal-bearing Sequences. Spec Publ Int Assoc Sedimentol No 7: 147–184Google Scholar
  38. Metzgar WJ (1965) Pennsylvanian stratigraphy of the Black Warrior basin. Alabama Geol Surv Circ 30: 1–80Google Scholar
  39. Pashin JC, Ward WE, Winston RB, Chandler RV, Bolin DE, Hamilton RP, Mink RM (1990) Geologic evaluation of critical production parameters for coalbed methane resources. Gas Research Institute, Annu Rep, Contr No 5087-214-1594: 177 ppGoogle Scholar
  40. Pashin JC, Osborne WE, Rindsberg AK (1991) Characterization of sandstone heterogeneity in Carboniferous reservoirs for increased recovery of oil and gas from foreland basins. United States Department of Energy Topical Rep, Contr No DE-FG2290BC1448: 169 ppGoogle Scholar
  41. Pirkle WA, Pirkle EC (1984) Physiographic features and field relations of Trail Ridge in northern Florida and southeastern Georgia. In: Cohen AD, Casagrande DJ, Andrejko MJ, Best GR (eds) The Okefenokee Swamp: its Natural History, Geology, and Geochemistry. Los Alamos, NM: 613–628Google Scholar
  42. Pody R, Dewey C (1986) Marine facies in the Upper Pottsville: new data from the Black Warrior basin in northern Alabama. J Am Soc Petrol Geol Bull 70: 633Google Scholar
  43. Raymond DE, Rheams LJ, Osborne WE, Gillespie WH, Henry TW (1988) Surface and subsurface mapping for the establishment of a stratigraphy and biostratigraphic framework for the Pennsylvanian section in the Jasper quadrangle of the Black Warrior basin of Alabama: a summary report of investigations for 1986–1987. Alabama Geol Surv Open-File Rep, prepared for the USGS under Agreement No 14-08-001-A0437: 427 ppGoogle Scholar
  44. Read WA, Forsyth IH (1989) Allocycles and autocycles in the upper part of the Limestone Coal Group (Pendleian El) in the Glasgow-Stirling region of the Midland Valley of Scotland. Geol J 24: 121–137Google Scholar
  45. Riegel W (1991) Coal cyclothems and some models for their origin. In: Einsele G, Ricken W, Seilacher A (eds) Cycles and Events in Stratigraphy. Springer, Berlin Heidelberg New York: 733–750Google Scholar
  46. Rindsberg AK, Liu Y, Demko TM, Gastaldo RA (1990) Ichnology of a Westphalian coal-bearing sequence in Alabama (Pennsylvanian Warrior basin). 228th International Geological Congress Abstr Vol. 3: 700–701Google Scholar
  47. Seilacher A (1991) Distinctive features of sandy tempestites. In: Einsele G, Seilacher A (eds) Cyclic and Event Stratification. Springer, Berlin Heidelberg New York: 331–349Google Scholar
  48. Tasch P (1973) Paleobiology of Invertebrates. Wiley, New York: 946 ppGoogle Scholar
  49. Thomas WA (1989) The Black Warrior basin. In: Sloss LL (ed) Sedimentary Cover — North American Craton. The Geology of North America. Vol. A. Geological Society of America, Boulder: 185Google Scholar
  50. Thomas WA, Womack SH (1983) Coal stratigraphy of the deeper part of the Black Warrior basin in Alabama. Gulf Coast Assoc Geol Soc Trans 23: 439–446Google Scholar
  51. Udden JA (1912) Geology and mineral resources of the Peoria Quadrangle, Illinois. US Geol Surv Bull 506: 1–103Google Scholar
  52. Van Wagoner JC, Posamentier HW, Mitchum RM, Vail PR, Sarg JF, Loutit TS, Hardenbol J (1988) An overview of the fundamentals of sequence stratigraphy and key definitions. In: Wilgus CK, Hastings BS, Kendall CGStC, Posamentier HW, Ross CA, Van Wagoner JC (eds) Sea-level Changes: an Integrated Approach. Spec Publ Soc Econ Paleontol Mineral No 42: 39–45Google Scholar
  53. Van Wagoner JC, Mitchum DM, Campion KM, Rahmanian VD (1990) Siliciclastic Sequence Stratigraphy in Well Logs, Cores, and Outcrops. Am Assoc Petrol Geol Methods Explor Ser No 7: 1–55Google Scholar
  54. Wanless HR, Shepard FP (1936) Sea level and climatic changes related to late Paleozoic cycles. Geol Soc Am Bull 47: 1177–1206Google Scholar
  55. Weimer RJ (1984) Relation of unconformities, tectonics, and sea-level changes, Cretaceous of Western Interior, U.S.A. In:Google Scholar
  56. Schtee JS (ed) Interregional Unconformities and Hydrocarbon Accumulation. Am Assoc Petrol Geol Mem No 30: 7–35Google Scholar
  57. Weller JM (1930) Cyclic sedimentation of the Pennsylvanian Period and its significance. J Geol 38: 97–135Google Scholar

Copyright information

© Springer-Verlag 1993

Authors and Affiliations

  • Robert A. Gastaldo
    • 1
  • Timothy M. Demko
    • 2
  • Yuejin Liu
    • 3
  1. 1.Department of GeologyAuburn UniversityUSA
  2. 2.Department of GeosciencesUniversity of ArizonaTucsonUSA
  3. 3.Department of Geological SciencesUniversity of KentuckyLexingtonUSA

Personalised recommendations