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Index Acquasparta Formation (AF), 505 fossil record, 197, 206 AF. Acquasparta Formation lake sedimentation phase, 200 AgredaSee Alloformation, 265, 270 Araripe-Potiguar depression (NE Brazil) deposition, 276 lacustrine phases, 197-206 facies associations and thicknesses, 271-273 sedimentary basins and sequences, 198-199 Agua Grande fault, 220 tectonic setting, 197 Aguil6n Formation (Central Iberian Range-NE Spain) Aratu local stage, 229 facies distribution, 288-289 Arches, sediment thickness and, 103 facies distribution, vertical, 293 Artoles Formation, 295 facies, principal, 292 Atafona Member, 226 lake unit paleoenvironments, 289 Aygyrshol Formation, 62 main fault, 288 thickness distribution, 288 Aguil6n subbasin (Central Iberian Range-NE Spain) Badejo Structural High, 229 facies distribution and stratigraphy, 289 Badlands (S. Dakota), field sites, 350. Chadron geologic subbasin, 285 Formation See also main listric fault, 287 Balbuena subgroup. Salta group outcrops, 286 Barbalha, 205 See Aix-en-Provence region Barungoi sequences, 52 basin architecture, 320 Basalts sedimentation context, 320-321 Columbia River, 364-365 lacustrine carbonate accumulation, 320 Etendeka, 178 Aktau Formation, 59 flood, 55, 167-168, 178 lower part, 63 Kalkrand, 167 Aktau Mountain Karoo, 167-168 lithostratigraphic units, 59 Neogene and Quaternary, 55 lithostratigraphy, paleontology, and depositional Bayunshirere sequences, 52 phases, 62 Beauce limestones (France). Paris Basin (Beauce Alac6n Formation, facies distribution and limestones) See stratigraphy, 284 Beaufort Group, 87, 100 Albian phase, 203-206 Bembridge Limestone Formation, 369-370 Alkaline lake deposits, 167-168 biomicrites, 372 Alluvial fan brecciated-nodular, 372 facies association, 511 carbonate facies, 374-375 ponds, 67-70 clotted-peloidal-ooidal, 372-374 Altai basins (Mongolia), 48 facies and cyclicity, 370-371 Anaerobic degradation, 20 important localities, 370 Andina Basin (Argentina), 323-327 intraclastic, 372 basin evolution, 327 laminar (Crustose), 374 Cretaceous-Lower Tertiary deposits, 324 lithologies, 372-374 Salta Group distribution, 324 marls and marly, 372 sedimentation processes, 327 muds and siliciclastic lithologies, 374 setting and stratigraphy, 323 silicified with microlenticular gypsum Yacoraite Formation, 323-324 pseudomorphs, 374 Angaran palynoflora! province (Mongolia), 36 succession, 373 Anoxia development, 310 Biomarkers, 21, 23 Anyao Formation Bioturbation preservation, 93 flute marks in turbidites, 192 Black Hills (S. Dakota) fossil record, 191 aquifers, 355 Jurassic lake deposits, 189 crystalline core, 355 regional setting, 189 field sites, 350 sedimentary facies, 189-190 modern flow systems, 355 stacking pattern, 190 Paleozoic carbonates, 353 turbidite lacustrine deposits, 192 uplift, 355 Aquigulake Group, 125 Blesa Formation Araripe Basin (NE Brazil), 197-199, 203-206 depositional sequence, 280, 282 Aptian lake deposits, 206 facies sequence, distribution, and stratigraphy, formation columns, 201 283-284 Downloaded from http://pubs.geoscienceworld.org/books/book/chapter-pdf/3837068/9781629810713_backmatter.pdf by guest on 26 September 2021 Index 637 lithostratigraphic synthesis, 281 sedimentary environments, 264-274 members, 279 stratigraphy, 263-264, 266 sedimentation, 280 subbasins, 266 Blomidon Formation, 160-161 Campos Basin (Brazil) fossil record, 160 acoustic-lithologic units, 226-241 mudstones and sandstones, 162 bioclastic carbonate lacustrine facies models, 245-254 Bogda Shan, 126 biostratigraphic interval characteristics, 246 uplift, 123 deposition, 241-243, 245 west flank, 127 facies associations, 246-248 Bouma sequences, 189, 362 geologic setting, 245-246 Breccia formation, in situ, 94 index map, 226 Brejo Santo Formation, 197 Lower Cretaceous stratigraphy, 245-246 lithologic column, 201 main structural elements, 246 Bristol Dry Lake (California) paleoenvironmental synthesis, 253-254 alluvial fan, 598-599 rift and transitional phase stratigraphy, 227-228 basin age and hydrochemistry, 600-602 rift phase structural features, 245 core age correlation, 603 rift, south-dipping, 230 depositional environments, 598-600 rift stage units, 2311 233-235 facies distribution, 600 stratigraphy, 225-228 geologic setting, 597-598 tectono-stratigraphic evolution, 241 major ion concentrations, 602 unit highs and low, 229-230 playa hydrology and margin, 599-600 units A-J, 226-241 salt pan, 599-600 units, transitional, 230 sedimentology, stratigraphy, and Candeias Formation, 214 hydrochemistry, 597-603 synrift system, 211 stratigraphic framework and sections, 600-601 Cangfanggou Group, 115 water-wells and cores, 598 Carbonates Buxin Group, lithostratigraphy, 332 Cascante-Ademuz zone, 499 interbedded fine-grained, 134-135 lacustrine, 47, 181, 186, 320, 501-502 Cabiunas Formation, 226, 229 lake sequences, shallowing-upward, 353 Calcaire de Rognac Formation, 319 Nilga Basin, 47 characterized, 320-321 Paleozoic, 353 regions, 317-319 Carboniferous and Permian lakes (Mongolia) stratigraphy, 318 biostratigraphic information, 36 Calcaire de Vitrolles episode, 320 facies details, 36 Calcaire de Vitrolles Formation, 319 fossil record, 36 Canet section, 321 geochemical characterization, 38 characterized, 320-321 tectonic overview, 36 detailed section, 320 Cascade Range (Washington, U.S.) Calcaire du Berry (COB), 389-394 Eocene wrench-fault step-over basin, 359-366 fossils, 390 geological setting, 359-361 geochemistry, 389 lacustrine facies, 363-365 limestone types, 392 Nahahum Canyon Member, 361-362 lithologic section at La Chevalerie Quarry, 393 paleolimnology, 363 outcrop exposures, 390 thermal maturity, 363-365 paleoenvironmental interpretation, 394 Cascante-Ademuz zone, 497-502 sedimentology, 389 carbonate lacustrine systems, 501-502 stratigraphy, 389 carbonates, 499 Calcaire Lacustre de Touraine (CLT), 343-344 coal (lignite), 500 Eocene exposures and sections, 344-345 evaporite lacustrine systems, 502 subbasins, 344-345 evaporites, 499-500 Calcaires de Beauce Formation lacustrine facies, 499-500 Oligocene-Miocene, 417-422 lacustrine systems, 501-502 Pithiviers area stratigraphy, 420 Libros, stratigraphic framework, 500 Calcariola-Fosso Canalicchio unit (CFCU), 527 mudstones, 500 Camarillas Formation, 295 Case Strinati Lake, 530-531 Cameros Basin (Northern Spain) Castellar Formation, 295 alloformations, 267-269 facies distribution, 297, 300 continental deposits, 263 main facies, 299 continental infilling, 274-275 sedimentary evolution, 297-299 domain, 257 sedimentologic model, 301 eastern and western, 263-265 COB. Calcaire du Berry fossil record, 264, 274 CentralSee Iberian domain, 258 paleogeographic maps for alloformations, 274-276 CFCU. Calcariola-Fosso Canalicchio unit paleogeographic source areas, 264-265 ChadronSee Formation (Badlands, S. Dakota) Downloaded from http://pubs.geoscienceworld.org/books/book/chapter-pdf/3837068/9781629810713_backmatter.pdf by guest on 26 September 2021 638 Index calcretes controversy, 350 Daheyen Formation, 129 carbonate, 349-352 Death Valley (California) depositional environment, 352 basins. Furnace Creek Formation geological setting, 349 ephemeralSee lake and pond associations, 73 implications, 353-355 lake, 591 lacustrine limestones and tubas, 349-355 wadi fan, dune, and temporary lake deposits, 72 lithofacies, 351-352 Degradation, anaerobic, 20 lithology, 349-350 Depositional sequences, 7 paleontology, 352 Desert lake deposits, temporary, 67 stratigraphic correlation of sections, 352 Dilution, 20 stratigraphy and age, 350-351 Distensive basins, lacustrine tufa and travertine deposition in late Eocene, 354 and, 311 Konservat-Lagerstiitten White River Group, 349 Doros Formation (Namibia), 88-89 Chemeron Formation facies architecture, 95 diatom assemblages and distribution, 468 facies variations, 103 floras, 469-470 fluvio-lacustrine succession, 95 Cherts, Magadi-type, 183 fossil record, 93 Chignecto subbasin, 159 geometry and extent, 89 location, 160 lake development, 90-93 Chilean Altiplano lake sediments, 87-88 geologic and geographic setting, 625 nearshore fluvial setting with ephemeral saline lake Late Quaternary lacustrine deposition, 625-634 intervals, 93 morphostructural units in lakes, 626 regional tectonostratigraphic framework, 89 China Lake, 591 rift zone model, 101 Chuladyr Formation, 60 sedimentologic log, 92 lacustrine deposition and, 63 sedimentologic relationships, 104 Chumstick Formation Drying-upward, cycles and trend, 82 basin, measured sections, 360 Dumfries Basin, 67-70 burial temperatures, 364 alluvial fan, 69 divisions, 359-361 environments, 72 extent, 364 fan toe, desert floor, interdune pond, and lake paleocurrent data of members, 362 deposits, 71 stratigraphic relationships of members, 361 sheetflood and playa deposits, 73 vitrinite reflectance values, 366 Dwyka Group, 177 CLAMP. Climate-Leaf Analysis Multivariate sequence, 168 ProgramSee Dzumbain sequence (Mongolia), 45, 47, 51 Clastic sediment input, 20 Climate, lake size and, 7 Climate-Leaf Analysis Multivariate Program Eagle Creek fault zone, 366 (CLAMP), 427 Early Jurassic rift valley, 167-168 CLT. Calcaire Lacustre de Touraine East Govi fossil record, 48 Coal depositsSee (Mongolia), 48 Ebro Basin (NE Spain), 407-414 Colorado Plateau, 181 alluvial and lacustrine facies, 400 Columbia River Basalt, 364-365 geologic maps and setting, 395-396, 407-408 Coquinas sequence halite precipitation, 401 bioclastic bars, beaches, and sheets, 248-249 lacustrine evolution, 396-402 bioherms, 248, 252 lacustrine vs. alluvial units, 408 calcarenite, 248-249 Oligocene-Miocene
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    See discussions, stats, and author profiles for this publication at: https://www.researchgate.net/publication/232388110 A systematic reassessment of Early Cretaceous multituberculates from Galve (Teruel, Spain) Article in Cretaceous Research · February 2011 DOI: 10.1016/j.cretres.2010.10.003 CITATIONS READS 12 34 3 authors: Ainara Badiola José Ignacio Canudo Universidad del País Vasco / Euskal Herriko… University of Zaragoza 15 PUBLICATIONS 109 CITATIONS 430 PUBLICATIONS 3,138 CITATIONS SEE PROFILE SEE PROFILE Gloria Cuenca-Bescós University of Zaragoza 300 PUBLICATIONS 4,166 CITATIONS SEE PROFILE All in-text references underlined in blue are linked to publications on ResearchGate, Available from: José Ignacio Canudo letting you access and read them immediately. Retrieved on: 29 July 2016 Author's personal copy Cretaceous Research 32 (2011) 45e57 Contents lists available at ScienceDirect Cretaceous Research journal homepage: www.elsevier.com/locate/CretRes A systematic reassessment of Early Cretaceous multituberculates from Galve (Teruel, Spain) Ainara Badiola*, José Ignacio Canudo, Gloria Cuenca-Bescós Grupo Aragosaurus-IUCA,1 Paleontología, Facultad de Ciencias, Universidad de Zaragoza, Pedro Cerbuna 12, E-50009 Zaragoza, Spain article info abstract Article history: This paper includes a systematic reassessment of the Early Cretaceous (late Hauterivianeearly Barre- Received 19 April 2010 mian) multituberculate fossils of Galve (Teruel, Spain), previously studied by Crusafont-Pairó and Adr- Accepted in revised form 1 October 2010 over, and Crusafont-Pairó and Gibert in 1966 and 1976, respectively, as well the study of other Available online 4 November 2010 unpublished specimens found in the revised collection of Institut Català de Paleontologia (ICP). We here include for the first time the emended descriptions and comparisons as well as the SEM photographs of Keywords: all the specimens found in the collection and update the biostratigraphic data that they have provided.
  • Study of Isolated Teeth of Theropod Dinosaurs

    Study of Isolated Teeth of Theropod Dinosaurs

    Gradu Amaierako Lana / Trabajo Fin de Grado Geologiako Gradua / Grado en Geología Dinosauru teropodoen hortzen azterketa/ Study of isolated teeth of theropod dinosaurs Errioxako Behe Kretazeoko espinosauruak Iberiar Penintsulako testuinguruan / Spinosaurids of the Early Cretaceous of La Rioja in an Iberian context Egilea/Autor/a: Erik Isasmendi Mata Zuzendaria/Director/a: Xabier Pereda Suberbiola and Ainara Badiola Kortabitarte Leioa, 2017ko ekainaren 26a /Leioa, 26 de Junio de 2017 INDEX: 1. ABSTRACT/ LABURPENA ....................................................................................................2 2. INTRODUCTION .................................................................................................................2 3. AIMS .................................................................................................................................3 4. PALEONTOLOGICAL BACKGROUND ....................................................................................4 4.1. DINOSAURIA ..............................................................................................................4 4.2. THEROPODA ..............................................................................................................5 4.2.1. SPINOSAURIDAE.................................................................................................5 4.2.1.1. SPINOSAURID TEETH ......................................................................................6 5. SETTING ............................................................................................................................8