Proc. IODP, 342, Site U1407

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Chapter contents Background and objectives Operations Hole U1407A summary Hole U1407B summary Hole U1407C summary Description Lithostratigraphy Unit I Unit II Unit III Unit IV Unit V Unit VI Lithostratigraphic unit summary Biostratigraphy Calcareous nannofossils Radiolarians Planktonic foraminifers Benthic foraminifers Macrofossils Paleomagnetism Results Magnetostratigraphy Magnetic susceptibility and anisotropy of magnetic susceptibility Age-depth model and mass accumulation rates Age-depth model Linear sedimentation rates Mass accumulation rates Geochemistry Headspace gas samples Interstitial water samples Sediment samples Physical properties Magnetic susceptibility Density and porosity P-wave velocity Natural gamma radiation Color reflectance Stratigraphic correlation Sampling splice Correlation during drilling operations Correlation and splice construction References Figures F1. Site map. F2. Seismic KNR179-1 Line 24. F3. Seismic KNR179-1 Line 34. F4. Lithostratigraphy summary. F5. Common lithologies. F6. Dominant lithologies, Units I–IV. F7. Dominant lithologies, Unit V. F8. Major lithologic components, Hole U1407A. F9. Major lithologic components, Hole U1407B. F10. Major lithologic components, Hole U1407C. F11. Unit III/IV boundary. F12. Siltstone bed. F13. Stratigraphic log and TOC. F14. OAE 2 black shale horizons. F15. OAE 2 lithologies. F16. Mixed carbonate clastic grainstone. F17. Danian–Campanian stratigraphic inversions. F18. Microfossil biozonation. F19. Age-depth model. F20. Microfossil abundance and preservation. F21. Radiolarians preserved in chert. F22. Orbitolina texana? F23. Macrofossils. F24. Paleomagnetism variation, Hole U1407A. F25. Paleomagnetism variation, Hole U1407B. F26. Paleomagnetism variation, Hole U1407C. F27. Representative demagnetization results. F28. Magnetostratigraphy. F29. AMS vs. depth. F30. LSR and MAR. F31. Interstitial water constituent concentrations. F32. Sedimentary carbonate contents. F33. OAE 2 total organic carbon. F34. MS and density. F35. MS and P-wave velocity. F36. MS and color reflectance. F37. MS splice. F38. CCSF depth vs. mbsf depth. F39. MS data, 0–10 m CCSF. F40. NGR splice. Tables T1. Coring summary. T2. Lithostratigraphic units. T3. Nannofossil datums. T4. Nannofossil distribution. T5. Radiolarian datums. T6. Radiolarian distribution. T7. Planktonic foraminifer datums. T8. Planktonic foraminifer distribution. T9. Benthic foraminifer morphotype distribution. T10. Benthic foraminifer distribution. T11. Core orientation data. T12. Demagnetization results. T13. Magnetostratigraphic tie points. T14. AMS summary. T15. Age-depth model datums. T16. Age-depth model datum tie points. T17. Carbonate content and accumulation rates. T18. Headspace gas geochemistry. T19. Interstitial water constituents. T20. Elemental geochemistry. T21. Core top and composite depths. T22. Splice tie points. PDF file			Previous \| Next doi:10.2204/iodp.proc.342.108.2014 References Arthur, M.A., 1979. Origin of Upper Cretaceous multicolored claystones of the Western Atlantic. In Tucholke, B.E., Vogt, P.R., et al., Init. Repts. DSDP, 43: Washington, DC (U.S. Govt. Printing Office), 417–420. doi:10.2973/dsdp.proc.43.111.1979 Arthur, M.A., and Premoli-Silva, I., 1982. Development of widespread organic carbon-rich strata in the Mediterranean Tethys. In Schlanger, S.O., and Cita, M.B. (Eds.), Nature and Origin of Cretaceous Carbon-Rich Facies: London (Academic Press), 7–54. Folk, R.L., 1959. Practical petrographical classification of limestones. AAPG Bull., 43(1):1–38. http://aapgbull.geoscienceworld.org/content/43/1/1.abstract Friedrich, O., 2010. Benthic foraminifera and their role to decipher paleoenvironment during mid-Cretaceous oceanic anoxic events—the “anoxic benthic foraminifera” paradox. Rev. Micropaleontol., 53(3):175–192. doi:10.1016/j.revmic.2009.06.001 Gieskes, J.M., 1981. 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