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Last modified
7/14/2009 5:02:31 PM
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5/20/2009 10:53:37 AM
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UCREFRP
UCREFRP Catalog Number
7842
Author
Knopf, F. L.
Title
Biological Diversity in Wildlife Management.
USFW Year
1992.
USFW - Doc Type
1992.
Copyright Material
NO
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(Shannon Wiener index) was also related to species diversity for these assemblages. <br />This suggests that diversity at different hierarchical levels may be correlated, possibly <br />because genetic information contained at one level is heavily dependent upon the <br />information content at lower hierarchical levels. Interrelationships among diversity <br />at different levels need further study, and hypotheses need to be generated as to what <br />the relationships should be. <br />Species <br />There are three genetic considerations that need to be taken into account in a <br />management program designed to conserve species. These include genetic dissimi- <br />larity, genetic variability and degree of genetic adaptation to environmental differ- <br />ences. Decisions should be made by considering all three together. <br />Large amounts of data have been collected on genetic diversity within species and <br />genetic distances among species (Nevo et al. 1984, Avise and Aquadro 1982). The <br />best example for wildlife species may be for members of the Cervidae. The genetic <br />relationships among, and genetic variability within several Cervid species are sum- <br />marized in Figure 3. These species do not really comprise a species assemblage <br />within a community, but illustrate how the results of such an analysis might appear. <br />Cervid species separated from others in the dendrogram by greater branch lengths <br />are the most genetically dissimilar forms. For example, North American elk and <br />Eurasian red deer (both Cervus elaphus) are genetically most similar to one another, <br />MOOSE <br />CARIBOU <br />REINDEER <br />ROE DEER <br />MULE DEER <br />WHITE-TAILED <br />DEER <br />ELK <br />RED DEER <br />0.40 0.48 0.56 0.64 0.72 0.80 0.88 <br />GENETIC SIMILARITY <br />H P A <br />0.4 2.4 1.27 <br />0.0 0.0 1.00 <br />2.2 17.7 1.24 <br />2.4 10.5 1.11 <br />3.6 17.1 1.2 <br />10.4 32.3 1.94 <br />2.1 17.9 ---- <br />2.1 22.8 1.26 <br />Figure 3. A dendrogram representing genetic relationships among 8 forms of Cervidae was con- <br />structed using an unweighted pair group cluster analysis with genetic identity values (Nei 1972) <br />taken from Baccus et al. (1983). Measures of genetic variability within each species are given as <br />percent multilocus heterozygosity (H), percent polymorphic loci (0.01 criterion, P) and average <br />number of alleles per locus (A). Values of H, P and A were taken from Smith et al. (1990) and <br />Baccus et al. (1983). Scientific names of species that are not provided in the text are: caribou, <br />Rangifer tarandus; moose, Alces atces; mule deer, Odocoileus hemionus; reindeer, Rangifer tarandus; <br />and roe deer, Capreolus capreolus. <br />246 ? Trans. 57 th N. A. Wildl. & Nat. Res. Conf. (1992) <br />0.40 0.48 0.56 0.64 0.72 0.80 0.88
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