Geobiology: History of Life on Earth
Introduces the processes by which biological and geological systems interact across Earth history, and the interpretation of the geochemical and paleontological record of these interactions. Surveys Earth history from the perspective of biological evolution, including major transitions in microbial and complex life, and corresponding ecological, environmental, and planetary changes. Topics include the early history of Earth and its ocean and atmosphere; biogeochemical cycles and microbial metabolisms; organismal evolutionary processes and the fossil record; the organic and inorganic biogeochemical record; snowball Earths and glacial periods; the history of climate changes, major mass extinctions and biodiversity. Students taking graduate version complete additional assignments.
Spring 2005 · Dynamics of Complex Systems: Biological and Environmental Coevolution Preceding the Cambrian Explosion
Topics
- Geochemical Signals of the Proterozoic-Phanerozoic Transition
- The Molecular Fossil Record
- Early Animal Evolution
- Molecular Clocks and the Divergence of Metazoans
- Oxygenation
- Glaciations
- Chronology
- Student Presentations
Readings
- Logan, G. A., J. M. Hayes, G. B. Hieshima, and R. E. Summons. “Terminal Proterozoic Reorganization of Biogeochemical Cycles.” Nature 376 (1995): 53-56.
- Hayes, J. M., H. Strauss, and A. J. Kaufman. “The Abundance of C13 in Marine Organic Matter and Isotopic Fractionation in the Global Biogeochemical Cycle of Carbon during the Past 800 Ma.” Chemical Geology 161 (1999): 103-125.
- Rothman, D. H., J. M. Hayes, and R. E. Summons. “Dynamics of the Neoproterozoic Carbon Cycle.” Proceedings of the National Academy of Sciences USA 100 (2003): 8124-8129.
- Fenchel, T. “Marine Plankton Food Chains.” Annual Review of Ecology and Systematics 19 (1988): 19-38.
- Summons, R. E., and M. R. Walter. “Molecular Fossils and Microfossils of Prokaryotes and Protists from Proterozoic Sediments.” American Journal of Science 290A (1990): 212-244.
- Summons, R. E., and J. J. Brocks. “Sedimentary Hydrocarbons, Biomarkers for Early Life.” In Treatise on Geochemistry. Vol. 8. Edited by H. D. Holland and K. Turekian. Elsevier, 2005, pp. 63-115. ISBN: 9780080446424.
- Volkman, J. K. “Sterols and other Triterpenoids: Source Specificity and Evolution of Biosynthetic Pathways.” Organic Geochemistry 36 (2005): 139-159.
- Porter, S. H. “The Fossil Record of Early Eukaryotic Diversification.” Paleontological Society Papers 10 (2004): 35-50.
- Knoll, A. H. “Proterozoic and Early Cambrian Protists: Evidence for Accelerating Evolutionary Tempo.” Proc Natl Acad USA 91 (1994): 6743-6750.
- Peterson, K., et al. “Estimating Metazoan Divergence Times with a Molecular Clock.” Proc Natl Acad USA 101 (2004): 6536-6541.
- Runnegar, B. “Precambrian Oxygen Levels Estimated from the Biochemistry and Physiology of Early Eukaryotes.” Paleogeography, Palaeoclimatology, Palaeoecology 97 (1991): 97-111. (Global and Planetary Change Section.)
- Betts, J. N., and H. D. Holland. “The Oxygen Content of Ocean Bottom Waters, the Burial Efficiency of Organic Carbon, and the Regulation of Atmospheric Oxygen.” Paleogeography, Palaeoclimatology, Palaeoecology 97 (1991): 5-18. (Global and Planetary Change Section.)
- Colman, A. S., and H. D. Holland. “The Global Diagenetic Flux of Phosphorus from Marine Sediments to the Oceans: Redox Sensitivity and the Control of Atmospheric Oxygen Levels.” In Marine Authigenesis: From Global to Microbial . Edited by C. R. Glenn, L. Prevot-Lucas, and J. Lucas. Tulsa, OK: SEPM (Society for Sedimentary Geology), 2000, pp. 53-75. SEPM Special Publication No. 66.
- Hoffman, P. F., and D. P. Schrag. “The Snowball Earth Hypothesis: Testing the Limits of Global Change.” Terra Nova 14 (2002): 129-155.
- Bowring, S. A., and M. D. Schmitz. “High-precision U-Pb Zircon Geochronology and the Stratigraphic Record.” Reviews in Mineralogy & Geochemistry 53 (2003): 305-326.
- Condon, D., et al. “U-Pb Ages from the Neoproterozoic Doushantuo Formation, China.” Science 308 (2005): 95-98.
Spring 2001 · Dynamics of Complex Systems: Ecological Theory
Topics
- Predator-prey Models
- Supplemental Information Ecological Experiments
- Supplemental Information Niche Theory
- Stability of Complex Systems
- Supplemental Information Competitive Exclusion
- Chaotic Dynamics
- Network Theory
- Population Dispersal
- Patchiness
- Pattern and Scale
- Spatial Models and Interacting Particle Systems
- Lattice-gas Models
- Plankton Patchiness
- Supplemental Information Scaling from Trees to Forests
- Evolution of Biodiversity
- Supplemental Information Adaptation and Diversification
- Artificial Life and Biological Complexity
- Cycles
- Reactivity, Stability, and Plankton (2 Presentations)
- Theory of Productivity-Diversity Relationships
- Evolution of Virulence in Host-Pathogen Systems
- Renormalization Approach to Biological Systems
- Directed Motion in Lotka-Volterra Models
- Supplemental Information “Highly Optimized Tolerance” and Ecology
- Theory of Vegetation Patterns
Readings
- Lotka, A. Elements of Mathematical Biology . New York, NY: Dover Publications, Inc. 1925, Reprinted 1957. ISBN: 9780486603469.
- Volterra, V. “Fluctuations in the Abundance of a Species Considered Mathematically.” Nature 118 (1926): 558-560.
- ———. “Experimental Analysis of Vito Volterra’s Mathematical Theory of the Struggle for Existence.” Science 79 (1934b): 16-17.
- Hutchinson, G. E. Concluding Remarks. Cold Spring Harbor Symp. Quan Biol 22 (1957): 415-427.
- ———. “Homage to Santa Rosalia, Or Why Are There So Many Kinds of Animals?” American Naturalist 93 (1959): 254-259.
- May, R. M. Stability and Complexity in Model Ecosystems . Princeton, NJ: Princeton University Press, 2001. ISBN: 9780691088617.
- Kerner, E. H. “Why Are There So Many Species?” Bull Math Biol 36 (1974): 477-488.
- Armstrong, R. A., and R. McGehee. “Competitive Exclusion.” American Naturalist 115 (1980): 151-170.
- Cushing, J. M., et al. “A Chaotic Attractor in Ecology: Theory and Experimental Data.” Chaos Solitons and Fractals 12 (2001): 219-234.
- Krapivsky, P. L., and S. Redner. “Organization of Growing Random Networks.” Cond-mat/0011094, 2000.
- Strogatz, S. H. “Exploring Complex Networks.” Nature 410 (2001): 268-276.
- Skellam, J. G. “Random Dispersal in Theoretical Populations.” Biometrika 38 (1951): 196-216.
- MacArthur, R. H., and E. R. Pianka. “On Optimal Use of a Patchy Environment.” American Naturalist 100 (1966): 603-609.
- Levin, S. A. “The Problem of Pattern and Scale in Ecology.” Ecology 73 (1992): 1943-1967.
- Durrett, R. “Stochastic Spatial Models.” SIAM Review 41 (1994): 677-718.
- Satulovsky, J. E., and T. Tome. “Stochastic Lattice Gas Model for a Predator-prey System.” Phys Rev E 49 (1994): 5073-5079.
- Flierl, G., D. Grunbaum, S. Levin, and D. Olson. “From Individuals to Aggregations: The Interplay Between Behavior and Physics.” Journal of Theoretical Biology 196 (1999): 397-454.
- Plotkin, J. B., et al. “Predicting Species Diversity in Tropical Forests.” Proc Natl Acad Sci 97 (2000): 10850-10854.
- Signor, P. W., III. “Real and Apparent Trends in Species Richness Through Time.” In Phanerozoic Diversity Patterns . Edited by J. W. Valentine. Princeton, NJ: Princeton University Press, 1986, pp. 129-150. ISBN: 9780691083742.
- ———. “The Geologic History of Diversity.” Annu Rev Ecol Syst 21 (1990): 509-539.
- Lenski, R. E., and M. Travisano. “Dynamics of Adapatation and Diversification: A 10,000-generation Experiment with Bacterial Populations.” Proc Natl Acad Sci 91 (1994): 6808-6814.
- Adami, C., C. Ofria, and T. C. Collier. “Evolution of Biological Complexity.” Proc Natl Acad Sci 97 (2000): 4463-4468.
- Kauffman, S. “Metabolic Stability and Epigenesis in Randomly Constructed Genetic Nets.” Journal of Theoretical Biology 22 (1969): 437-467.
Spring 2000 · Dynamics of Complex Systems: Complexity in Ecology
Topics
- How many Species are there on Earth?
- Introduction to Food Webs and Trophic Interactions
- Empirical Examples and Critiques of the Cascade Model
- Dynamical Models of Food Webs
- What is the Relationship Between Complexity and Stability?
- Evidence from Experiments
- Diversity Stability Relationships: Statistical Inevitability or Ecological Consequence?
- Diversity in Terrestrial Ecosystems
- Perspectives on Biodiversity and Ecosystem Function
- Island Biogeography
- Theoretical Foundation: Log-normal Distributions of Species Abundance Power-law Species-area Curves
- Spatial Models
- What is the Role of Resource Availability in Species-area Relationships?
- Empirical Tests of Species-energy Theory
- Issues of Scale
- Extinction Rates and Range Contraction of Endangered Species
- Introduction to Body Size in the Context of Evolution and Ecology
- Allometric Constraints, Resource Equipartitioning and Body Size
- Cope’s Rule
- Home Range Scaling and Statistical Artifacts in Abundance Sampling
- Evolutionary Entropy and Body Size
- Student Presentations
Readings
- May, R. M. “How many Species are there on Earth?” Science 241 (1988): 1441-9.
- Cohen, J. E., and C. M. Newman. “A Stochastic Theory of Community Food Webs I. Models and Aggregated Data.” Proc R Soc Lond B 224 (1985): 421-48.
- Pimm, S. L., J. H. Lawton, and J. E. Cohen. “Food Web Patterns and their Consequences.” Nature 350 (1991): 669-74.
- Goldwasser, L., and J. Roughgarden. “Construction and Analysis of a Large Caribbean Food Web.” Ecology 74 (1993): 1216-33.
- Havens, K. “Scale and Structure in Natural Food Webs.” Science 257 (1992): 1107-9.
- Pimm, S. L., and J. H. Lawton. “Number of Trophic Levels in Ecological Communities.” Nature 268 (1977): 329-331.
- Post, W. M., and S. L. Pimm. “Community Assembly and Food Web Stability.” Mathematical Biosciences 64 (1983): 169-192.
- May, R. M. “Will a Large Complex System be Stable?” Nature 238 (1972): 413-414.
- Cohen, J. E., and C. M. Newman. “When will a Large Complex System be Stable?” J Theor Biol 113 (1985): 153-6.
- Solow, A. R., C. Costello, and A. Beet. “On an Early Result on Stability and Complexity.” American Naturalist 154 (1999): 587-588.
- Tilman, D. “Biodiversity: Population versus Ecosystem Stability.” Ecology 77 (1996): 350-363.
- Doak, D. F., et al. “The Statistical Inevitability of Stability Diversity Relationships in Community Ecology.” American Naturalist 151 (1998): 264-76.
- Tilman, D., C. L. Lehman, and C. E. Bristow. “Diversity Stability Relationships: Statistical Inevitability or Ecological Consequence?” American Naturalist 151 (1998): 277-82.
- Naeem, S., L. J. Thompson, S. P. Lawler, J. H. Lawton, and R. M. Woodfin. “Empirical Evidence that Declining Species Diversity may Alter the Performance of Terrestrial Ecosystems.” Phil Trans R Soc Lond B 347 (1995): 249-62.
- Grime, J. P. “Biodiversity and Ecosystem Function: The Debate Deepens.” Science 277 (1997): 1260-1.
- Wardle, D. A., O. Zackrisson, G. Hornberg, and C. Gallet. “The Influence of Island Area on Ecosystem Properties.” Science 277 (1997): 1296-1300.
- Tilman, D., J. Knops, D. Wedin, P. Reich, M. Ritchie, and M. Siemann. “The Influence of Functional Diversity and Composition on Ecosystem Processes.” Science 277 (1997): 1300-2.
- Hooper, D. U., and P. M. Vitousek. “The Effects of Plant Composition and Diversity on Ecosystem Processes.” Science 277 (1997): 1302-5.
- MacArthur, R. H., and E. O. Wilson. “An Equilibrium Theory of Insular Zoogeography.” Evolution 17 (1963): 373-387.
- May, R. M. “Patterns of Species Abundance and Diversity.” In Ecology and Evolution of Communities. Edited by M. L. Cody and J. M. Diamond. Cambridge, MA: Belknap Press, 1975, pp. 81-120. ISBN: 9780674224445.
- Durrett, R., and S. Levin. “Spatial Models for Species-area Curves.” Journal of Theoretical Biology 179 (1996): 119-127.
- Wright, D. H. “Species-energy Theory: An Extension of Species-area Theory.” Oikos 41 (1983): 4896-506.
- Currie. “Energy and Large-scale Patterns of Animal- and Plant-species Richness.” The American Naturalist 137 (1991): 27-49.
- Rosenzweig, M. L., and Z. Abramsky. “How are Diversity and Productivity Related?” In Diversity in Ecological Communities . Edited by R. E. Ricklefs and D. Schluter. Chicago, IL: University of Chicago Press, 1994, pp. 52-65. ISBN: 9780226718224.
- Wright, D. H., D. J. Currie, and B. A. Maurer. “Energy Supply and Patterns of Species Richness on Local and Regional Scales.” In Diversity in Ecological Communities . Edited by R. E. Ricklefs and D. Schluter. Chicago, IL: University of Chicago Press, 1994, pp. 66-74. ISBN: 9780226718224.
- Lawton, J. H. “Population Dynamics Principles.” In Extinction Rates . Edited by R. H. Lawton and R. M. May. New York, NY: Oxford University Press, 1995, pp. 147-63. ISBN: 9780198548294.
- Channel, R., and M. V. Lomolino. “Dynamic Biogeography and Conservation of Endangered Species.” Nature 403 (2000): 84-6.
- LaBarbera, M. “Analyzing Body Size as a Factor in Ecology and Evolution.” Annu Rev Ecol Sys 20 (1989): 97-117.
- Damuth, J. “Population Density and Body Size in Mammals.” Nature 290 (1981): 699-700.
- Enquist, B. J., J. H. Brown, and G. B. West. “Allometric Scaling of Plant Energetics and Population Density.” Nature 395 (1998): 163-5.
- Alroy, J. “Cope’s Rule and the Dynamics of Body Mass Evolution in North American Fossil Mammals.” Science 280 (1998): 731-4.
- Lindstedt, S. L., B. J. Miller, and S. W. Buskirk. “Home Range, Time and Body Size in Mammals.” Ecology 67 (1986): 413-8.
- Blackburn, T. M., and K. J. Gaston. “Abundance-body Size Relationships: the Area you Census tells you More.” Oikos 75 (1996): 303-9.
- Demetrius, L. “Directionality Principles in Thermodynamics and Evolution.” Proc Natl Acad Sci 94 (1997): 3491-8.
- ———. “Directionality Theory and the Evolution of Body Size.” (Unpublished, 2000).
Prerequisites & course information
Subject meets with 12.107 Prereq: None G (Spring) 3-0-9 units
Sources
- Course catalogue ↗2026–2027
- MIT OpenCourseWare ↗Spring 2005
- MIT OCW readings ↗
- MIT OCW calendar ↗
- MIT OCW syllabus ↗
- MIT OpenCourseWare ↗Spring 2001
- MIT OCW calendar ↗
- MIT OCW readings ↗
- MIT OCW syllabus ↗
- MIT OpenCourseWare ↗Spring 2000
- MIT OCW calendar ↗
- MIT OCW syllabus ↗
- MIT OCW readings ↗
- Historical MIT OpenCourseWare offering. Named reading entries and schedule topics are automatically extracted from the linked source pages.
- Historical MIT OpenCourseWare offering. Named reading entries and schedule topics are automatically extracted from the linked source pages.
- Historical MIT OpenCourseWare offering. Named reading entries and schedule topics are automatically extracted from the linked source pages.