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. 2005 Nov 8;273(1584):341–348. doi: 10.1098/rspb.2005.3329

Figure 2.

Figure 2

Distribution of di for each test. di values are expected to be significantly greater than zero under the female-biased dispersal hypothesis. For each graph, the number of di values greater and lower than zero are indicated (N). (a) Genetic differentiation ar at the local scale, di=a¯r(f)ia¯r(m)i; (b) genetic relatedness rw at the local scale, di=r¯w(m)ir¯w(f)i; (c) genetic differentiation ar at the regional scale, di=a¯r(m)ia¯r(f)i; (d) genetic relatedness rw at the regional scale, di=r¯w(f)ir¯w(m)i; (e) geographic distances, di=g¯(m)ig¯(f)i; (f) absolute residuals of the regression genetic distance/ln(geographic distance), di=s¯(m)is¯(f)i; (g) geographic distances of related individuals, di=g¯rel(f)ig¯rel(m)i. a¯r(m)i and a¯r(f)i are the mean genetic differentiations ar for males and females, respectively, for the ith resampling set; r¯w(m)i and r¯w(f)i are the mean genetic relatedness rw for males and females respectively, for the ith resampling set; g¯(m)i and g¯(f)i are the mean geographic distances for males and females respectively, for the ith resampling set; s¯(m)i and s¯(f)i are the mean absolute values of the residuals from the regression of genetic differentiation on ln(geographic distance) for males and females respectively, for the ith resampling set; g¯rel(m)i and g¯rel(f)i are the mean geographic distances of related individuals for males and females, respectively.