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Index to Volume 144 INDEX TO VOLUME 144 This index provides coverage for both the Initial Reports and Scientific Results portions of Volume 144 of the Proceedings of the Ocean Drilling Program. Refer- ences to page numbers in the Initial Reports are preceded by “A” with a colon (A:), and to those in the Scientific Results (this book), by “B” with a colon (B:). In addi- tion, reference to material on CD-ROM is shown as “bp:CD-ROM.” The index was prepared by Earth Systems, under subcontract to the Ocean Drill- ing Program. The index contains two hierarchies of entries: (1) a main entry, defined as a keyword or concept followed by a reference to the page on which that word or concept appears, and (2) a subentry, defined as an elaboration on the main entry fol- lowed by a page reference. The index is presented in two parts: (1) a Subject Index and (2) a Taxonomic Index. Both parts cover text, figures, and tables but not core-description forms (“barrel sheets”), core photographs, smear-slide data, or thin-section descriptions; these are given in the Initial Reports. Also excluded from the index are biblio- graphic references, names of individuals, and routine front and back matter. The Subject Index follows a standard format. Geographic, geologic, and other terms are referenced only if they are subjects of discussion. This index also includes broad fossil groups such as nannofossils and radiolarians. A site chapter in the Ini- tial Reports is considered the principal reference for that site and is indicated on the first line of the site’s listing in the index. Such a reference to Site 871, for example, is given as “Site 871, A:41−103.” The Taxonomic Index is an index relating to significant findings and/or substan- tive discussions, not of species names per se. This index covers three varieties of information: (1) individual genera and species that have been erected or emended formally, (2) biostratigraphic zones, and (3) fossils depicted in illustrations. A taxo- nomic entry consisting of both genus and species is listed alphabetically by genus and also by species. Biostratigraphic zones are listed alphabetically by genus; zones with letter prefixes are listed under “zones.” For further information, including available electronic formats, contact the Chief Production Editor, Ocean Drilling Program, 1000 Discovery Drive, College Station, Texas 77845-9547, U.S.A., E-mail: [email protected] 1022 Index to Volume 144 SUBJECT INDEX acervulinids, abundance in carbonates, B:174, geophysical logs, B:659–661 petrology, A:236; B:499–500 183, 187 guyots, A:86 trace elements, B:523 acetate isotope geochemistry, B:542–543 ankaramite flows, alkaline basalts, B:487 interstitial waters, B:470–474 petrology, B:475–491, 496 anoxic environment, authigenesis, B:465–466 profiles related to physical property changes, rock magnetism, B:615–630 antillocaprinids, Cretaceous–Paleogene interval, B:470 ternary diagrams, B:519 B:887–893 vs. depth, B:472–473, 739, 741 volcanic substrate, B:942 apatite age estimation well logs, A:318–320, 393 basalts, A:74; B:497, 501 alkali basalts, B:535–545 alkali olivine basalt hardgrounds, B:421 basement lavas, B:547–557 eruptions, A:138 photograph, B:426–427, 764 guyots, B:883, 884–885 petrography, A:371, 373–374 Aptian strontium isotopes, B:412–413, 415 petrology, B:499–502 depositional history, B:337–359, 361–380 age inversion, guyots, B:42 alkalinity foraminifers, B:199–219 age models cores, A:447 lithologic units, A:339–345, 349–351, 353; Site 872, B:966 interstitial waters, A:67–68, 129, 179, 232, 418–422 Site 873, B:968 302, 366, 430; B:469–474 Aptian/Albian assemblages, paleobiogeography, age vs. depth, B:413, 683, 956, 958, 962 profiles, B:910 B:887–888 aggradation vs. depth, A:73, 130, 182, 368 Aptian/Albian boundary, strontium isotopes, atolls, B:286–289 Allison Guyot B:452–453, 455 Maestrichtian, B:783–784 basalt alteration, B:475–481, 484 aragonite air inclusions carbonate clay mineralogy, B:459–468 cements, B:440–443 diagenesis, B:867 comparison with NW Pacific guyots, B:945 stable isotopes, B:859 fluid inclusions, B:862–864 foraminifer ooze, B:684–685 strontium isotopes, B:454–455 Albian guyot origin and evolution, B:942 aragonite compensation depth depositional history, B:337–359, 361–380 alteration meteoric diagenesis, B:865, 869 foraminifers, B:199–219 basalts, B:497–498, 501–502 See also carbonate compensation depth lithologic units, A:339–341, 417–420 magnetic properties, B:616–621 archaeomonads, vs. depth, B:64 See also Aptian/Albian assemblages petrology, A:236 archipelagic apron, stratigraphy, B:879–881 Albian/Cenomanian boundary, biostratigraphy, volcanics, A:72, 74 argon isotopes, basalts, B:550–556 B:165 See also hydrothermal alteration arthropods, abundance in carbonates, B:131, 179, Albian crisis, carbonate platforms, B:929–930 aluminum 181–183, 185 algae ferromanganese crusts, B:751–753 asbolane, nickel, photograph, B:768 abundance in carbonates, B:130 vs. titanium oxide, B:518, 528 asbolane–buserite assemblage biostratigraphy, A:173–175 aluminum/silicon ratio logs, vs. depth, A:197 ferromanganese crusts, B:751 Cretaceous–Paleogene interval, B:873–885 aluminum logs hardgrounds, B:421–422 depositional sequences, B:826–828, 836–840 basalts, A:320 photograph, B:766 outer perimeter ridge, B:296–300 vs. depth, A:95, 197, 247, 390–391 atolls photograph, B:333 aluminum oxide carbonate buildup, B:311–335 textures, B:317–319 vs. depth, B:660 depositional history, B:361–380 See also corallinaceans; dasycladaceans; vs. magnesium/magnesium+iron ratio, B:481, drowning, B:554 rhodoliths 484 geomorphology, B:274 algae, calcareous alveolar texture, diagenesis, B:797, 806–807 models, B:910–911 abundance in carbonates, B:174, 176–177, alveolinids origin, A:3; B:936–937 183, 187 abundance in carbonates, B:131 physiography, B:561–583 biostratigraphy, B:221–230 Paleogene, B:887–893 authigenesis paleobiogeography, B:887–893 amino acids, organic acids, B:473 alteration, B:478–480, 484–487 algae, Codiaceae, photograph, B:331 ammonites, abundance in carbonates, B:180, 182, clay mineralogy, B:466 algae, coralline, photograph, B:305 184, 186 stable isotopes, B:859 algae, encrusting, photograph, B:172 ammonium authigenic minerals, lithofacies, B:900 algae, green, vs. depth, B:281 interstitial waters, A:68, 129, 179, 232, 302; algae, red B:469–474 barium, basalts, B:504 guyots, B:945 vs. depth, A:73, 130, 182; B:473 barium/zirconium ratio, vs. niobium/zirconium lithofacies, B:277 analcime, paleosols, B:386 ratio, B:509 lithologic units, A:155–158 anatase, paleosols, B:383–386 basal clay, biostratigraphy, A:64–65 vs. depth, B:280–281 Anewetak Atoll basalt/seawater interactions algal-rich facies, lithofacies, B:340–359 atolls, A:3 alteration, B:478–480, 484–487 algal assemblages, depositional history, B:246 coccolithophorids, B:144 carbonates, B:462–463 algal mats, authigenesis, B:465–466 drilling, B:769–771 strontium isotopes, B:454–455 aliphatic acids, interstitial waters, B:469–474 flexure modeling of atoll and guyot pairs, basalt flow, ankaramitic, photograph, A:240–241 alkali basalt flows B:583 basalt intrusion, peperite, A:435 lithologic units, A:284–285, 353 guyot origin and evolution, B:939, 944 basalt pillows trace elements, B:531–532 physiography, B:562–564, 574–576 petrography, A:430 alkali basalts volcanism, A:138 photograph, A:433 composition, A:279 anhydrite, carbonates, B:462 basalts elastic-wave velocity, B:667–670 ankaramite alteration, B:475–491 1023 Index to Volume 144 basalts (cont.) SUBJECT INDEX chemical analyses, B:480, 482–483 biostratigraphic assemblages, biogeography, well logs, A:392 composition, A:277–280 B:887–893 bryozoans, abundance in carbonates, B:178, 180, demagnetization, A:69–70 biostratigraphy 182, 184, 186 geochemistry, B:495–512 algae, B:221–230 buliminids, abundance in carbonates, B:131 geotechnical units, A:77, 137, 188 calcareous nannofossils, B:141–156 bulk density logs index properties, A:377 Cretaceous, B:157–169, 275, 781–782 basalts, A:319 lithologic units, A:118, 220, 267 Cretaceous–Paleogene interval, B:873–885 vs. depth, A:384–387 lithology, A:72 foraminifers, B:127–139, 199–219 burrows, photograph, A:268; B:335 lithostratigraphy, B:771 ostracods, B:87–96 buserite. See asbolane–buserite assemblage magnetic properties, B:632–637 Pacific Ocean NW, B:691–736 oceanic crust, B:649–663 Site 801, A:315, 317 calcarenite, lower, porous, skeletal, outer perime- pedogenic alteration, B:381–398 Site 871, A:55–65 ter ridge, B:296 Site 872, A:132–135 Site 872, A:119–125 calcarenite, upper, porous, skeletal, outer well logs, A:434–435 Site 873, A:164–166, 169–177 perimeter ridge, B:299 See also alkali basalts; alkali olivine basalt; Site 874, A:225–231 calcification, Neogene, B:409 basanite; basanitic basalts; lava; Site 878, A:356–362 calcisponges, photograph, B:333 peperite basalt Site 879, A:425–426 calcite basalts, altered, lithologic units, A:159 Site 880, A:444–445 alteration, B:479–480, 484–487 basalts, basanitic Sites 875/876, A:269–274 geochemistry, B:1001–1003 ternary diagrams, B:519 biotite, petrology, B:501 shallow-water limestone, B:423 trace elements, B:531–532 bioturbation X-ray diffraction data, A:304 basalts, nephelinitic, ternary diagrams, B:519 chemofacies, B:900 calcite, blocky, lithofacies, B:277–278, 281–284 basalts, scoriaceous, petrology, B:500–502 deposition, A:163–164, 356 calcite, fascicular-optic, lithofacies, B:277–278, basalts, tholeiitic photograph, A:164, 166, 426 281–283 remanent magnetization, B:644–646 birnessite calcite, magnesium ternary diagrams, B:519 ferromanganese crusts, B:751, 758 cements, B:440–443 well logs, A:322 photograph, B:766 meteoric diagenesis, B:865 basalts, vesicular bivalves strontium isotopes, B:454–455 eruptions, A:185 abundance in carbonates, B:130, 178, 180, calcite, radiaxial, lithofacies, B:277–278, 281–283 lithologic units, A:342–344 182, 184, 186 calcite, scalenohedral, lithofacies, B:277–278, petrology, A:308 diagenesis, B:435 281–283 basanite photograph, A:424 calcite cements, photograph, B:291–294 guyots, A:86 vs.
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    14. OLIGOCENE TO RECENT CALCAREOUS NANNOPLANKTON FROM THE PHILIPPINE SEA, DEEP SEA DRILLING PROJECT LEG 59 Erlend Martini, Geologisch-Palàontologisches Institut der Universitàt, Frankfurt am Main, Germany INTRODUCTION substitute species. Its last occurrence marks the top of Zone NP 25 in Leg 59. During Leg 59 of the Deep Sea Drilling Project, five A different zonation, mainly based on Bukry (1971a, sites (447 to 451) were occupied and seven holes drilled 1973), was used during Leg 31 in the Western Philippine between Okinawa and Guam in the Philippine Sea (Fig. Sea and during Leg 60 at the eastern transect of the 1). All holes except Hole 447 yielded common calcare- Philippine Sea. For better comparison of results both ous nannoplankton at certain intervals cored. Nanno- zonations and their correlation are shown in Figure 2. plankton assemblages and their age assignments will be The zonations differ in some parts of the tabulated time discussed for each site, and fossil lists for selected interval but are otherwise very similar because 20 boun- samples from Holes 447A, 448, 450, and 451 are pre- daries are identical in both zonations. There is also sented in Tables 1 to 4, covering the middle Oligocene to general agreement on the age of some major boun- the Quaternary. daries, indicated by an asterisk in Figure 2. A few remarks, however, seem necessary to avoid misinter- CALCAREOUS NANNOPLANKTON ZONATION pretation, especially in the Oligocene, where some con- For the Tertiary and Quaternary, I have used the fusion may arise because the same zonal names are used standard calcareous nannonplankton zonation (Mar- for different time intervals.
  • Paleontology of the Upper Eocene to Quaternary Postimpact Section in the USGS-NASA Langley Core, Hampton, Virginia

    Paleontology of the Upper Eocene to Quaternary Postimpact Section in the USGS-NASA Langley Core, Hampton, Virginia

    Paleontology of the Upper Eocene to Quaternary Postimpact Section in the USGS-NASA Langley Core, Hampton, Virginia By Lucy E. Edwards, John A. Barron, David Bukry, Laurel M. Bybell, Thomas M. Cronin, C. Wylie Poag, Robert E. Weems, and G. Lynn Wingard Chapter H of Studies of the Chesapeake Bay Impact Structure— The USGS-NASA Langley Corehole, Hampton, Virginia, and Related Coreholes and Geophysical Surveys Edited by J. Wright Horton, Jr., David S. Powars, and Gregory S. Gohn Prepared in cooperation with the Hampton Roads Planning District Commission, Virginia Department of Environmental Quality, and National Aeronautics and Space Administration Langley Research Center Professional Paper 1688 U.S. Department of the Interior U.S. Geological Survey iii Contents Abstract . .H1 Introduction . 1 Previous Work and Zonations Used . 3 Lithostratigraphy of Postimpact Deposits in the USGS-NASA Langley Corehole . 7 Methods . 8 Paleontology . 9 Chickahominy Formation . 9 Drummonds Corner Beds . 17 Old Church Formation . 19 Calvert Formation . 20 Newport News Beds . 20 Plum Point Member . 20 Calvert Beach Member . 21 St. Marys Formation . 27 Eastover Formation . 28 Yorktown Formation . 29 Tabb Formation . 31 Discussion . 31 Summary and Conclusions . 31 Acknowledgments . 33 References Cited . 34 Appendix H1. Full Taxonomic Citations for Taxa Mentioned in Chapter H . 39 Appendix H2. Useful Cenozoic Calcareous Nannofossil Datums . 46 Plates [Plates follow appendix H2] H1–H9. Fossils from the USGS-NASA Langley core, Hampton, Va.: H1. Dinoflagellate cysts from the Chickahominy Formation H2. Dinoflagellate cysts from the Chickahominy Formation H3. Dinoflagellate cysts from the Chickahominy Formation, Drummonds Corner beds, and Old Church Formation H4. Dinoflagellate cysts from the Old Church and Calvert Formations H5.
  • Coccolithophores

    Coccolithophores

    Coccolithophores From Molecular Processes to Global Impact Bearbeitet von Hans R Thierstein, Jeremy R Young 1. Auflage 2004. Buch. xiii, 565 S. Hardcover ISBN 978 3 540 21928 6 Format (B x L): 21 x 29,7 cm Gewicht: 1129 g Weitere Fachgebiete > Chemie, Biowissenschaften, Agrarwissenschaften > Botanik > Phykologie Zu Inhaltsverzeichnis schnell und portofrei erhältlich bei Die Online-Fachbuchhandlung beck-shop.de ist spezialisiert auf Fachbücher, insbesondere Recht, Steuern und Wirtschaft. Im Sortiment finden Sie alle Medien (Bücher, Zeitschriften, CDs, eBooks, etc.) aller Verlage. Ergänzt wird das Programm durch Services wie Neuerscheinungsdienst oder Zusammenstellungen von Büchern zu Sonderpreisen. Der Shop führt mehr als 8 Millionen Produkte. What is new in coccolithophore biology? Chantal BILLARD1 and Isao INOUYE2 1 Laboratoire de Biologie et Biotechnologies Marines, Université de Caen, F-14032 Caen, France. [email protected] 2 Institute of Biological Sciences, University of Tsukuba, 1-1-1 Tennodai, Tsukuba, 305- 8572 Ibaraki, Japan. [email protected] Summary Knowledge of the biology of coccolithophores has progressed considerably in re- cent years thanks to culture studies and meticulous observations of coccospheres in wild samples. It has been confirmed that holococcolithophores and other "anomalous" coccolithophores are not autonomous but stages in the life cycle of oceanic heterococcolithophores. The existence of such heteromorphic life cycles linking former "species" has far reaching consequences on the taxonomy and no- menclature of coccolithophores and should foster research on the environmental factors triggering phase changes. The cytological characteristics of coccolithopho- res are reviewed in detail with special attention to the cell covering, coccolitho- genesis and the specificity of appendages in this group.