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In the Light of Evolution, Volume II: Biodiversity and Extinction (2008)
National Academy of Sciences (NAS)

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. "6 How Many Tree Species Are There in the Amazon and How Many of Them Will Go Extinct?--STEPHEN P. HUBBELL, FANGLIANG HE, RICHARD CONDIT, LUIS BORDA-DE-ÁGUA, JAMES KELLNER, and HANS TER STEEGE." In the Light of Evolution, Volume II: Biodiversity and Extinction. Washington, DC: The National Academies Press, 2008.

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In the Light of Evolution: Volume II—Biodiversity and Extinction
FIGURE 6.7 Predicted extinction rates of tree species in the Brazilian Amazon under the optimistic and nonoptimistic scenarios of Laurance et al. (2001) as a function of population size. The abundance bins (histogram bars) are labeled with the logarithm to the base 10 of the lower bound of abundance in the respective bin. (a) Extinction scenario 1: Species go extinct only if their entire geographic range is in heavy-impact areas (in Fig. 6.6) on either the optimistic or the nonoptimistic scenarios of Laurance et al. (2001). (b) Comparison of extinction scenarios 1 and 3. In extinction scenario 3, species manage to survive in heavy-impact areas if at least one occupied cell survives, with probability 0.05 per cell. Extinction scenario 2 (data not shown), in which species can go extinct if they have some portion of their range in areas other than heavy-impact, gave results very similar to extinction scenario 1

FIGURE 6.7 Predicted extinction rates of tree species in the Brazilian Amazon under the optimistic and nonoptimistic scenarios of Laurance et al. (2001) as a function of population size. The abundance bins (histogram bars) are labeled with the logarithm to the base 10 of the lower bound of abundance in the respective bin. (a) Extinction scenario 1: Species go extinct only if their entire geographic range is in heavy-impact areas (in Fig. 6.6) on either the optimistic or the nonoptimistic scenarios of Laurance et al. (2001). (b) Comparison of extinction scenarios 1 and 3. In extinction scenario 3, species manage to survive in heavy-impact areas if at least one occupied cell survives, with probability 0.05 per cell. Extinction scenario 2 (data not shown), in which species can go extinct if they have some portion of their range in areas other than heavy-impact, gave results very similar to extinction scenario 1

(19.9%) are predicted to go extinct, of which 36 species have population sizes of >105 individuals. However, for the 3,248 species (29.0%) with >106 individuals apiece, there are no forecast extinctions under the optimistic scenario.

Extinction scenario 2 (results not shown) gave qualitatively similar results to scenario 1 because we made it hard to go extinct in moderate-to light-impact areas (all occupied cells in these areas had to go extinct, with fairly low probability of extinction in each cell: 15% and 5% per-cell extinction probability in moderate- and light-impact areas, respectively).

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Front Matter (R1-R18)
Part I: Contemporary Patterns and Processes in Animals (1-4)
1 Ecological Extinction and Evolution in the Brave New Ocean--JEREMY B. C. JACKSON (5-26)
2 Are We in the Midst of the Sixth Mass Extinction? A View from the World of Amphibians--DAVID B. WAKE and VANCE T. VREDENBURG (27-44)
3 Patterns of Biodiversity and Endemism on Indo-West Pacific Coral Reefs--MARJORIE L. REAKA, PAULA J. RODGERS, and ALEXEI U. KUDLA (45-62)
4 Homage to Linnaeus: How Many Parasites? How Many Hosts?--ANDY DOBSON, KEVIN D. LAFFERTY, ARMAND M. KURIS, RYAN F. HECHINGER, and WALTER JETZ (63-82)
Part II: Contemporary Patterns and Processes in Plants and Microbes (83-84)
5 Species Invasions and Extinction: The Future of Native Biodiversity on Islands--DOV F. SAX and STEVEN D. GAINES (85-106)
6 How Many Tree Species Are There in the Amazon and How Many of Them Will Go Extinct?--STEPHEN P. HUBBELL, FANGLIANG HE, RICHARD CONDIT, LUIS BORDA-DE-ÁGUA, JAMES KELLNER, and HANS TER STEEGE (107-126)
7 Microbes on Mountainsides: Contrasting Elevational Patterns of Bacterial and Plant Diversity--JESSICA A. BRYANT, CHRISTINE LAMANNA, HÉLÈNE MORLON, ANDREW J. KERKHOFF, BRIAN J. ENQUIST, and JESSICA L. GREEN (127-148)
8 Resistance, Resilience, and Redundancy in Microbial Communities--STEVEN D. ALLISON and JENNIFER B. H. MARTINY (149-166)
Part III: Trends and Processes in the Paleontological Past (167-170)
9 Extinction as the Loss of Evolutionary History--DOUGLAS H. ERWIN (171-188)
10 Extinction and the Spatial Dynamics of Biodiversity--DAVID JABLONSKI (189-206)
11 Dynamics of Origination and Extinction in the Marine Fossil Record--JOHN ALROY (207-226)
12 Megafauna Biomass Tradeoff as a Driver of Quaternary and Future Extinctions--ANTHONY D. BARNOSKY (227-242)
Part IV: Prospects for the Future (243-246)
13 A Phylogenetic Perspective on the Distribution of Plant Diversity--MICHAEL J. DONOGHUE (247-262)
14 Phylogenetic Trees and the Future of Mammalian Biodiversity--T. JONATHAN DAVIES, SUSANNE A. FRITZ, RICHARD GRENYER, C. DAVID L. ORME, JON BIELBY, OLAF R. P. BININDA-EMONDS, MARCEL CARDILLO, KATE E. JONES, JOHN L. GITTLEMAN, GEORGINA M. MACE, and ANDY PURVIS (263-280)
15 Three Ambitious (and Rather Unorthodox) Assignments for the Field of Biodiversity Genetics--JOHN C. AVISE (281-296)
16 Engaging the Public in Biodiversity Issues--MICHAEL J. NOVACEK (297-316)
17 Further Engaging the Public on Biodiversity Issues--PETER J. BRYANT (317-328)
18 Where Does Biodiversity Go from Here? A Grim Business-as-Usual Forecast and a Hopeful Portfolio of Partial Solutions--PAUL R. EHRLICH and ROBERT M. PRINGLE (329-346)
References (347-394)
Index (395-414)