Title: Figure 24'1 Two patterns of speciation
1Figure 24.1 Two patterns of speciation
2Figure 24.2a The biological species concept is
based on interfertility rather than physical
similarity
3Figure 24.5 A summary of reproductive barriers
between closely related species
4Figure 24.6 Two modes of speciation
5Figure 24.7 Allopatric speciation of squirrels
in the Grand Canyon
6Figure 24.8 Has speciation occurred during
geographic isolation?
7Figure 24.9 Ensatina eschscholtzii, a ring
species
8Figure 24.10 Long-distance dispersal
9Figure 24.11 A model for adaptive radiation on
island chains
10Figure 24.12 Evolution of reproductive isolation
in lab populations of Drosophila
11Figure 24.13 Sympatric speciation by
autopolyploidy in plants
12Figure 24.14a Botanist Hugo de Vries
13Figure 24.14b The new primrose species of
botanist Hugo de Vries
14Figure 24.15 One mechanism for allopolyploid
speciation in plants
15Figure 24.17 Two models for the tempo of
speciation
16Figure 24.18 A range of eye complexity among
mollusks
17Figure 24.19 Allometric growth
18Figure 24.20 Heterochrony and the evolution of
salamander feet among closely related species
19Figure 24.21 Paedomorphosis
20Figure 24.22 Hox genes and the evolution of
tetrapod limbs
21Figure 24.23 Hox mutations and the origin of
vertebrates
22Figure 24.24 The branched evolution of horses