Paleobiogeography using fossils to study global change, plate tectonics, and evolution
Biogeography relates the evolution of the Earth's biota to major episodes in the Earth's history such as climatic changes and plate tectonic events. Furthermore, biogeographic patterns have played a prominent role in the development of the theory of evolution. Thus biogeography has the potential to make important contributions to the field of geobiology. Paleobiogeography emphasizes how analytical techniques from phylogenetic biogeography can be applied to the study of patterns in the fossil record. In doing this, it considers the strengths and weaknesses of paleobiogeographic data, the effects of plate tectonic processes (specifically continental rifting and collision) and changes in relative sea levels in terms of how they influence the evolution and distribution of organisms.
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New York, New York, United States Springer Science+Business Media
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Paleobiogeografía Biogeografía Paleobiogeografía Biogeografía Lieberman, Bruce S. autor Paleobiogeography using fossils to study global change, plate tectonics, and evolution |
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Biogeography relates the evolution of the Earth's biota to major episodes in the Earth's history such as climatic changes and plate tectonic events. Furthermore, biogeographic patterns have played a prominent role in the development of the theory of evolution. Thus biogeography has the potential to make important contributions to the field of geobiology. Paleobiogeography emphasizes how analytical techniques from phylogenetic biogeography can be applied to the study of patterns in the fossil record. In doing this, it considers the strengths and weaknesses of paleobiogeographic data, the effects of plate tectonic processes (specifically continental rifting and collision) and changes in relative sea levels in terms of how they influence the evolution and distribution of organisms. |
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Lieberman, Bruce S. autor |
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Lieberman, Bruce S. autor |
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Lieberman, Bruce S. autor |
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Paleobiogeography using fossils to study global change, plate tectonics, and evolution |
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Paleobiogeography using fossils to study global change, plate tectonics, and evolution |
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Paleobiogeography using fossils to study global change, plate tectonics, and evolution |
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Paleobiogeography using fossils to study global change, plate tectonics, and evolution |
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Paleobiogeography using fossils to study global change, plate tectonics, and evolution |
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paleobiogeography using fossils to study global change, plate tectonics, and evolution |
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New York, New York, United States Springer Science+Business Media |
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c200 |
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https://doi.org/10.1007/978-1-4615-4161-5 |
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KOHA-OAI-ECOSUR:553392023-01-31T19:28:00ZPaleobiogeography using fossils to study global change, plate tectonics, and evolution Lieberman, Bruce S. autor textNew York, New York, United States Springer Science+Business Mediac2000engBiogeography relates the evolution of the Earth's biota to major episodes in the Earth's history such as climatic changes and plate tectonic events. Furthermore, biogeographic patterns have played a prominent role in the development of the theory of evolution. Thus biogeography has the potential to make important contributions to the field of geobiology. Paleobiogeography emphasizes how analytical techniques from phylogenetic biogeography can be applied to the study of patterns in the fossil record. In doing this, it considers the strengths and weaknesses of paleobiogeographic data, the effects of plate tectonic processes (specifically continental rifting and collision) and changes in relative sea levels in terms of how they influence the evolution and distribution of organisms.Incluye bibliografía e índice: páginas 191-208Chapter 1. What Is Paleobiogeography?.. Chapter 2. The Relevance of Hierarchy Theory to Biogeography and Paleobiogeography.. 2.1. Introduction.. 2.2. The Genealogical and Economic Hierarchies.. 2.3. Hierarchies and Evolution.. 2.4. Hierarchies and Biogeography.. 2.5. Climate Change and Biogeographic Patterns.. 2.6. Geological Change and Biogeographic Patterns over Even Longer Timescales.. 2.7. Mass Extinctions and Biogeography.. 2.8. Conclusions.. Chapter 3. On the Quality of the Fossil Record and What a Paleobiogeographer Can See.. 3.1. Introduction.. 3.2. Taphonomic Studies.. 3.3. Area and Volume of Sediments.. 3.4. Phylogenetic Studies.. 3.5. Confidence Intervals on Stratigraphic Ranges.. 3.6. Studies of Sedimentation Rates and Stratigraphic Completeness.. 3.7. Conclusions.. Chapter 4. The History of Biogeography and Paleobiogeography.. 4.1. Introduction.. 4.2. Preevolutionary Biogeographic Views.. 4.3. Evolutionary Biogeography.. 4.4. The Role of Isolation as a Mechanism of Speciation and Biogeographic Differentiation.. 4.5. Conclusions.. Chapter 5. Allopatric Speciation and Vicariance.. 5.1. Introduction.. 5.2. The Relevance of Allopatric Speciation to Historical Biogeography.. 5.3. Comparing Sympatric and Allopatric Speciation.. 5.4. Why Speciation Is Important in Biogeography?.. 5.5. Why Speciation Is Especially Important in Paleobiogeography?.. 5.6. The Relationship among Allopatric Speciation, Punctuated Equilibrium, and Dispersal.. 5.7. Conclusions.. Chapter 6. Vicariance, Dispersal, and Plate Tectonics.. 6.1. Introduction.. 6.2. Dispersion and Dispersal.. 6.3. Traditional Dispersal.. 6.4. Defining a Different Type of Dispersal: Geodispersal.. 6.5. Historical Framework on the Concept of Geodispersal.. 6.6. Integrating Vicariance and Geodispersal with Plate Tectonics.. 6.7. Relating Earth History and Evolution: General Perspective.. 6.8. Limits of Resolution in the Fossil Record, Our Ability to Identify Paleobiogeographic Patterns, and Conclusions.. Chapter 7. Defining Areas in Paleobiogeography.. 7.1. Introduction.. 7.2. Species Concepts: Ontology and Epistemology.. 7.3. The Individuality of Species.. 7.4. Translating the Debate about Species to the Debate about the Nature or Ontology of Areas.. 7.5. The Epistemology of Areas.. 7.6. Conclusions.. Chapter 8. Biogeography and the Comparative Method.. 8.1. Introduction.. 8.2. Phylogenetics and Biogeography.. 8.3. Tracing Biogeographic Distributions Group by Group: the Problem of Ancestors.. 8.4. Quantitative Approaches to Reconstruct the Historical Biogeography of Individual Clades.. 8.5. Areas as Binary Characters.. 8.6. Dispersal-Vicariance Analysis.. 8.7. Conclusions.. Chapter 9. The Search for Congruence: Analyzing Biogeographic Patterns in Several Clades.. 9.1. Introduction.. 9.2. Potential Sources of Noise in Paleobiogeographic Studies.. 9.3. Extinct Taxa and the Difference between Biogeography and Paleobiogeography.. 9.4. Additional Basic Assumptions of any Biogeographic Study.. 9.5. Analytical Approaches to Historical Biogeography.. 9.6. Phenetic Approaches to Biogeographic Analysis.. 9.7. Probabilistic Approaches to Biogeographic Analysis.. 9.8. Analytical Approaches to Biogeography within a Phylogenetic Framework.. 9.9. Arguments about Using Parsimony Algorithms in Biogeography.. 9.10. Other Criticisms of Brooks Parsimony Analysis that Are No Longer Valid.. 9.11. Parsimony Analysis of Endemicity.. 9.12. Case Studies Assessing the Efficacy of Components Analysis vs Brooks Parsimony Analysis that Used the Extant Biota.. 9.13. Paleobiogeographic Studies Using Phylogenetic Approaches and the Modified Version of Brooks Parsimony Analysis.. 9.14. Further Issues in Cladistic Biogeography that Need to be Explored.. 9.15. Conclusions.. Chapter 10. Biogeography and the Biodiversity Crisis.. 10.1. Introduction.. 10.2. Invasive Species and the Biodiversity Crisis: Geodispersal and Merging Areas of Endemism.. 10.3. Analogues from the Past: the Late Devonian Mass Extinction.. 10.4. Habitat Destruction and the Biodiversity Crisis: Destroying Areas of Endemism.. 10.5. Historical Perspective on Biogeography's Role in Understanding the. Biodiversity Crisis.. 10.6. Biogeography: More Lessons from the Recent Past.. 10.7. Conclusions.. Chapter 11 Conclusions.. References.. IndexBiogeography relates the evolution of the Earth's biota to major episodes in the Earth's history such as climatic changes and plate tectonic events. Furthermore, biogeographic patterns have played a prominent role in the development of the theory of evolution. Thus biogeography has the potential to make important contributions to the field of geobiology. Paleobiogeography emphasizes how analytical techniques from phylogenetic biogeography can be applied to the study of patterns in the fossil record. In doing this, it considers the strengths and weaknesses of paleobiogeographic data, the effects of plate tectonic processes (specifically continental rifting and collision) and changes in relative sea levels in terms of how they influence the evolution and distribution of organisms.Subscripción a ELSEVIERPaleobiogeografíaBiogeografíaPaleobiogeography: using fossils to study global change, plate tectonics, and evolutionhttps://doi.org/10.1007/978-1-4615-4161-5URN:ISBN:030646277XURN:ISBN:9781461368670 (Print)Disponible para usuarios de ECOSUR con su clave de acceso |