How Paleontologists Work Lesson Plan
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The Rock and Fossil Record the Rock and Fossil Record the Rock And
TheThe RockRock andand FossilFossil RecordRecord Earth’s Story and Those Who First Listened . 426 Apply . 427 Internet Connect . 428 When on Earth? . 429 Activity . 430 MathBreak . 434 Internet Connect 432, 435 Looking at Fossils . 436 QuickLab . 438 Internet Connect . 440 Time Marches On . 441 QuickLab . 443 Internet Connect . 445 Chapter Lab . 446 Chapter Review . 449 TEKS/TAKS Practice Tests . 451, 452 Feature Article . 453 Time Stands Still Pre-Reading Questions Sealed in darkness for 49 million years, this beetle still shimmers with the same metallic hues that once helped it hide among ancient plants. This rare fossil 1. How do scientists study was found in Messel, Germany. In the same rock formation, the Earth’s history? scientists have found fossilized crocodiles, bats, birds, and 2. How can you tell the age frogs. A living stag beetle (above) has a similar form and of rocks and fossils? color. Do you think that these two beetles would live in 3. What natural or human similar environments? What do you think Messel, Germany, events have caused mass was like 49 million years ago? In this chapter, you will extinctions in Earth’s learn how scientists answer these kinds of questions. history? 424 Chapter 16 Copyright © by Holt, Rinehart and Winston. All rights reserved. MAKING FOSSILS Procedure 1. You and three or four of your classmates will be given several pieces of modeling clay and a paper sack containing a few small objects. 2. Press each object firmly into a piece of clay. Try to leave an imprint showing as much detail as possible. -
Coprolites of Deinosuchus and Other Crocodylians from the Upper Cretaceous of Western Georgia, Usa
Milàn, J., Lucas, S.G., Lockley, M.G. and Spielmann, J.A., eds., 2010, Crocodyle tracks and traces. New Mexico Museum of Natural History and Science, Bulletin 51. 209 COPROLITES OF DEINOSUCHUS AND OTHER CROCODYLIANS FROM THE UPPER CRETACEOUS OF WESTERN GEORGIA, USA SAMANTHA D. HARRELL AND DAVID R. SCHWIMMER Department of Earth and Space Sciences, Columbus State University, Columbus, GA 31907 USA, [email protected] Abstract—Associated with abundant bones, teeth and osteoderms of the giant eusuchian Deinosuchus rugosus are larger concretionary masses of consistent form and composition. It is proposed that these are crocodylian coprolites, and further, based on their size and abundance, that these are coprolites of Deinosuchus. The associated coprolite assemblage also contains additional types that may come from smaller crocodylians, most likely species of the riverine/estuarine genus Borealosuchus, which is represented by bones, osteoderms and teeth in fossil collections from the same site. INTRODUCTION The Upper Cretaceous Blufftown Formation in western Georgia contains a diverse perimarine and marine vertebrate fauna, including many sharks and bony fish (Case and Schwimmer, 1988), mosasaurs, plesio- saurs, turtles (Schwimmer, 1986), dinosaurs (Schwimmer et al., 1993), and of particular interest here, abundant remains of the giant eusuchian crocodylian Deinosuchus rugosus (Schwimmer and Williams, 1996; Schwimmer, 2002). Together with bite traces attributable to Deinosuchus (see Schwimmer, this volume), there are more than 60 coprolites recov- ered from the same formation, including ~30 specimens that appear to be of crocodylian origin. It is proposed here that the larger coprolites are from Deinosuchus, principally because that is the most common large tetrapod in the vertebrate bone assemblage from the same locality, and it is assumed that feces scale to the producer (Chin, 2002). -
Mary Anning of Lyme Regis: 19Th Century Pioneer in British Palaeontology
Headwaters Volume 26 Article 14 2009 Mary Anning of Lyme Regis: 19th Century Pioneer in British Palaeontology Larry E. Davis College of St. Benedict / St. John's University, [email protected] Follow this and additional works at: https://digitalcommons.csbsju.edu/headwaters Part of the Geology Commons, and the Paleontology Commons Recommended Citation Davis, Larry E. (2009) "Mary Anning of Lyme Regis: 19th Century Pioneer in British Palaeontology," Headwaters: Vol. 26, 96-126. Available at: https://digitalcommons.csbsju.edu/headwaters/vol26/iss1/14 This Article is brought to you for free and open access by DigitalCommons@CSB/SJU. It has been accepted for inclusion in Headwaters by an authorized editor of DigitalCommons@CSB/SJU. For more information, please contact [email protected]. LARRY E. DAVIS Mary Anning of Lyme Regis 19th Century Pioneer in British Palaeontology Ludwig Leichhardt, a 19th century German explorer noted in a letter, “… we had the pleasure of making the acquaintance of the Princess of Palaeontology, Miss Anning. She is a strong, energetic spinster of about 28 years of age, tanned and masculine in expression …” (Aurousseau, 1968). Gideon Mantell, a 19th century British palaeontologist, made a less flattering remark when he wrote in his journal, “… sallied out in quest of Mary An- ning, the geological lioness … we found her in a little dirt shop with hundreds of specimens piled around her in the greatest disorder. She, the presiding Deity, a prim, pedantic vinegar looking female; shred, and rather satirical in her conversation” (Curwin, 1940). Who was Mary Anning, this Princess of Palaeontology and Geological Lioness (Fig. -
Teacher's Booklet
Ideas and Evidence at the Sedgwick Museum of Earth Sciences Teacher’s Booklet Acknowledgements Shawn Peart Secondary Consultant Annette Shelford Sedgwick Museum of Earth Sciences Paul Dainty Great Cornard Upper School Sarah Taylor St. James Middle School David Heap Westley Middle School Thanks also to Dudley Simons for photography and processing of the images of objects and exhibits at the Sedgwick Museum, and to Adrienne Mayor for kindly allowing us to use her mammoth and monster images (see picture credits). Picture Credits Page 8 “Bag of bones” activity adapted from an old resource, source unknown. Page 8 Iguanodon images used in the interpretation of the skeleton picture resource from www.dinohunters.com Page 9 Mammoth skeleton images from ‘The First Fossil Hunters’ by Adrienne Mayor, Princeton University Press ISBN: 0-691-05863 with kind permission of the author Page 9 Both paintings of Mary Anning from the collections of the Natural History Museum © Natural History Museum, London 1 Page 12 Palaeontologists Picture from the photographic archive of the Sedgwick Museum © Sedgwick Museum of Earth Sciences Page 14 Images of Iguanodon from www.dinohunters.com Page 15 “Duria Antiquior - a more ancient Dorsetshire” by Henry de la Beche from the collection of the National Museums and Galleries of Wales © National Museum of Wales Page 17 Images of Deinotherium giganteum skull cast © Sedgwick Museum of Earth Sciences Page 19 Image of red sandstone slab © Sedgwick Museum of Earth Sciences 2 Introduction Ideas and evidence was introduced as an aspect of school science after the review of the National Curriculum in 2000. Until the advent of the National Strategy for Science it was an area that was often not planned for explicitly. -
Fossil Lagerstätte from Ya Ha Tinda, Alberta, Canada
A new Early Jurassic (ca. 183 Ma) fossil Lagerstätte from Ya Ha Tinda, Alberta, Canada Rowan C. Martindale1,2*, Theodore R. Them II3,4, Benjamin C. Gill3, Selva M. Marroquín1,3, and Andrew H. Knoll2 1Department of Geological Sciences, The University of Texas at Austin, 1 University Station C1100, Austin, Texas 78712, USA 2Department of Organismic and Evolutionary Biology, Harvard University, 26 Oxford Street, Cambridge, Massachusetts 02138, USA 3Department of Geosciences, Virginia Polytechnic Institute and State University, 4044 Derring Hall (0420), Blacksburg, Virginia 24061, USA 4Department of Earth, Ocean and Atmospheric Science & National High Magnetic Field Laboratory, Florida State University, Tallahassee, Florida 32306, USA ABSTRACT Figure 1. Global paleoge- Lagerstätten—deposits of exceptionally preserved fossils—offer ography during Toarcian vital insights into evolutionary history. To date, only three Konservat- and location of Ya Ha Tinda Hispanic (Alberta, Canada; yellow Lagerstätten are known from Early Jurassic marine rocks (Osteno, Corridor Tethys star), Strawberry Bank (UK; Posidonia Shale, and Strawberry Bank), all located in Europe. We gray star), and Posidonia report a new assemblage of exceptionally preserved fossils from Panthalassa Shale (Germany; black star) Alberta, Canada, the first marine Konservat-Lagerstätte described Lagerstätten. Green areas are Pangea landmasses, light-blue areas from the Jurassic of North America. The Ya Ha Tinda assemblage are shallow seas, and dark includes articulated vertebrates (fish, -
Mary Anning: Princess of Palaeontology and Geological Lioness
The Compass: Earth Science Journal of Sigma Gamma Epsilon Volume 84 Issue 1 Article 8 1-6-2012 Mary Anning: Princess of Palaeontology and Geological Lioness Larry E. Davis College of St. Benedict / St. John's University, [email protected] Follow this and additional works at: https://digitalcommons.csbsju.edu/compass Part of the Paleontology Commons Recommended Citation Davis, Larry E. (2012) "Mary Anning: Princess of Palaeontology and Geological Lioness," The Compass: Earth Science Journal of Sigma Gamma Epsilon: Vol. 84: Iss. 1, Article 8. Available at: https://digitalcommons.csbsju.edu/compass/vol84/iss1/8 This Article is brought to you for free and open access by DigitalCommons@CSB/SJU. It has been accepted for inclusion in The Compass: Earth Science Journal of Sigma Gamma Epsilon by an authorized editor of DigitalCommons@CSB/SJU. For more information, please contact [email protected]. Figure. 1. Portrait of Mary Anning, in oils, probably painted by William Gray in February, 1842, for exhibition at the Royal Academy, but rejected. The portrait includes the fossil cliffs of Lyme Bay in the background. Mary is pointing at an ammonite, with her companion Tray dutifully curled beside the ammonite protecting the find. The portrait eventually became the property of Joseph, Mary‟s brother, and in 1935, was presented to the Geology Department, British Museum, by Mary‟s great-great niece Annette Anning (1876-1938). The portrait is now in the Earth Sciences Library, British Museum of Natural History. A similar portrait in pastels by B.J.M. Donne, hangs in the entry hall of the Geological Society of London. -
Exceptionally Preserved Asphaltic Coprolites Expand the Spatiotemporal Range of a North American Paleoecological Proxy Alexis M
www.nature.com/scientificreports OPEN Exceptionally preserved asphaltic coprolites expand the spatiotemporal range of a North American paleoecological proxy Alexis M. Mychajliw1,2,3*, Karin A. Rice1, Laura R. Tewksbury1, John R. Southon4 & Emily L. Lindsey1 As fossilized feces, coprolites represent direct evidence of animal behavior captured in the fossil record. They encapsulate past ecological interactions between a consumer and its prey and, when they contain plant material, can also guide paleoenvironmental reconstructions. Here we describe the frst coprolites from the lagerstätte Rancho La Brea (RLB) in Los Angeles, California, which also represent the frst confrmed coprolites from an asphaltic (“tar pit”) context globally. Combining multiple lines of evidence, including radiocarbon dating, body size reconstructions, stable isotope analysis, scanning electron microscopy, and sediment analyses, we document hundreds of rodent coprolites found in association with plant material, and tentatively assign them to the woodrat genus Neotoma. Neotoma nests (i.e., middens) and their associated coprolites inform paleoclimatic reconstructions for the arid southwestern US but are not typically preserved in coastal areas due to environmental and physiological characteristics. The serendipitous activity of an asphalt seep preserved coprolites and their original cellulosic material for 50,000 years at RLB, yielding a snapshot of coastal California during Marine Isotope Stage 3. This discovery augments the proxies available at an already critical fossil locality and highlights the potential for more comprehensive paleoenvironmental analyses at other asphaltic localities globally. Coprolites are some of the most important ichnofossils that can be recovered from a diversity of taphonomic, ecological, and geologic contexts1. As trace fossils, coprolites represent windows into the evolution of ecological interactions such as predation, herbivory, and parasitism, and can contain paleoecological proxies spanning thou- sands to millions of years in the past2–4. -
Fossils of Indiana of Indiana of Indiana
Fossils of Indiana Lesson Plan Grades 4 ––– 666 INFORMATION FOR EDUCATORS TABLE OF CONTENTS Background Text for Educators……pps. 3 – 9 Vocabulary…………………………pps. 10 – 12 Discussion Questions…………........pps. 13 – 17 Activities…………………………...pps. 18 – 32 Additional Activities……………….pps. 33 – 37 Activity Handouts………………….pps. 38 – 45 Activity Answers..…………………pps. 46 – 49 Resources……………………………p. 50 Evaluation……………………………p. 51 INTRODUCTION The study of fossils is a key element to understanding our past. Fossils give us clues about how humans and different animals lived and evolved. This lesson plan incorporates oral and written language, reading, vocabulary development, science, social studies and critical thinking. The lessons contained in this packet are intended for grades 4 to 6. The activities are designed to be innovative and meet Indiana Academic Standards. The text and worksheets are reproducible. SETTING THE STAGE To begin the lesson plan, you might want the environment of your entire classroom to reflect the ideas of science, geology and discovery. This can be achieved by incorporating this theme into bulletin boards, learning centers, art projects and whatever else you are doing in your classroom. Educators looking for good picture resources for their classroom can contact the Indiana State Museum Store and ask about our The Carr Poster Series, which depicts animals throughout Indiana’s geologic history and includes a geologic timeline. When you set the tone of your classroom in this manner, learning becomes an all- encompassing experience for your students. We encourage you to use this lesson plan as a springboard to further knowledge about fossils and their importance in understanding history. This lesson plan is comprised of four general areas: Geologic Time, Fossil Formation, Discovering Fossils and Paleozoic Fossils. -
NPS Museum Handbook, Part I Appendix U: Curatorial Care Of
Appendix U: Curatorial Care of Paleontological and Geological Collections Page Section I: Paleontological Collections.....................................................................................................U:1 A. Overview............................................................................................................................................U:1 What information concerning paleontological collections will I find in this appendix? .......................U:1 Why is it important to practice preventive conservation with paleontological specimens?................U:1 How do I learn about preventive conservation?.................................................................................U:1 Where can I find the latest information on care of paleontological specimens? ................................U:2 B. Paleontological Collections and Fossils ......................................................................................U:2 What are paleontological collections?................................................................................................U:2 What is a fossil? .................................................................................................................................U:2 Are there other types of fossils?.........................................................................................................U:2 How can I identify the fossils in my collection? ..................................................................................U:3 C. Body Fossils ....................................................................................................................................U:3 -
Analyses of Coprolites Produced by Carnivorous Vertebrates
CHIN—ANALYSES OF COPROLITES PRODUCED BY VERTEBRATES ANALYSES OF COPROLITES PRODUCED BY CARNIVOROUS VERTEBRATES KAREN CHIN Museum of Natural History/Department of Geological Sciences, University of Colorado at Boulder, UCB 265, Boulder, Colorado 80309 USA ABSTRACT—The fossil record contains far more coprolites produced by carnivorous animals than by herbivores. This inequity reflects the fact that feces generated by diets of flesh and bone (and other skeletal materials) contain chemical constituents that may precipitate out under certain conditions as permineralizing phosphates. Thus, although coprolites are usually less common than fossil bones, they provide a significant source of information about ancient patterns of predation. The identity of a coprolite producer often remains unresolved, but fossil feces can provide new perspectives on prey selection patterns, digestive efficiency, and the occurrence of previously unknown taxa in a paleoecosystem. Dietary residues are often embedded in the interior of coprolites, but much can be learned from analyses of intact specimens. When ample material is available, however, destructive analyses such as petrography or coprolite dissolution may be used to extract additional paleobiological information. INTRODUCTION provide different types of information. Diet and depositional environment largely WHEN PREDATOR-PREY interactions cannot determine which animal feces may be fossilized and be observed directly, fecal analysis provides the next the quality of preservation of a lithified specimen. best source of information about carnivore feeding Significant concentrations of calcium and phosphorus activity because refractory dietary residues often in bone and flesh often favor the preservation of reveal what an animal has eaten. This approach is carnivore feces by providing autochthonous sources very effective in studying extant wildlife, and it can of constituents that can form permineralizing calcium also be used to glean clues about ancient trophic phosphates (Bradley, 1946). -
Louis Agassiz
Louis Agassiz From Wikipedia, the free encyclopedia Jean Louis Rodolphe Agassiz (May 28, Louis Agassiz 1807—December 14, 1873) was a Swiss-American zoologist, glaciologist, and geologist, the husband of educator Elizabeth Cabot Cary Agassiz (married in 1850), and one of the first world-class American scientists. Contents 1 Early life and education 2 Early work 3 Proposal of an ice age 4 Relocation to the United States 5 Legacies 6 Racial classification scheme and racism Louis Agassiz 7 Works Born May 28, 1807 8 Sources Haut-Vully, Switzerland 9 References 10 External links Died December 14, 1873 (aged 66) Cambridge, Massachusetts Nationality American Early life and education Fields Zoology Further information: Agassiz family Louis Agassiz was born in Môtier (now part of Haut-Vully) in the canton of Fribourg, Switzerland. Educated first at home, then spending four years of secondary school in Bienne, he completed his elementary studies in Lausanne. Having adopted medicine as his profession, he studied successively at the universities of Zürich, Heidelberg and Munich; while there he extended his knowledge of natural history, especially of botany. In 1829 he received the degree of Doctor of Philosophy at Erlangen, and in 1830 that of doctor of medicine at Munich. Moving to Paris he fell under the tutelage of Alexander von Humboldt and Georges Cuvier, who launched him on his careers of geology and zoology respectively. Until shortly before this time he had paid no special attention to the study of ichthyology, which soon afterwards became the great occupation of his life, if not the one for which he is most remembered in the modern day. -
Geological Survey
DEPARTMENT OF THE IHTBEIOE BULLETIN OF THE UNITED STATES GEOLOGICAL SURVEY WASHINGTON G-UVEltNMENT PRINTING OFFICE 1900 [JOTTED STATES GEOLOGICAL StJKVEY (JHAKLES D. WALCOTT. DIEECTOK BIBLIOGRAPHY AND INDEX OF AND MI FOR THE YEA.R 1899 BY FRED BOTJGHTON WEEKS WASHINGTON GOVERNMENT PRINTING OFFICE 1900 CONTENTS. Page. Letter of transmittal...................................................... 7 Introduction............................................................. 9 List of publications examined ...............'.......................;...... 11 Bibliography............................................................. 15 Addenda to bibliographies for previous years............................... 90 Classified key to the index................................................ 91 Index................................................................... 97 LETTER OF TRANSMITTAL. DEPARTMENT OF THE INTERIOR, UNITED STATES GEOLOGICAL SURVEY, DIVISION OF GEOLOGY, Washmgton, D. <?., June 1%, 1900. SIR: I have the honor to transmit herewith the manuscript of a Bibliography and Index of North American Geology, Paleontology, Petrology, and Mineralogy for the Year 1899, and to request that it l)e published as a bulletin of the Survey. Very respectfully, F. B. WEEKS. Hon. CHARLES D. WALCOTT, Directs United States Geological Survey. 7 BIBLIOGRAPHY AND INDEX OF NORTH AMERICAN GEOLOGY, PALEONTOLOGY, PETROLOGY, AND MINERALOGY FOR THE YEAR 1899. By FEED BOUGHTON WEEKS. INTRODUCTION. The method of preparing and arranging the material of the Bibliog raphy