figure 3.13 ectodermal competence and the ability to respond to the optic vesicle inducer in xenopus

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Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

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Figure 3.15 Schematic diagram of induction of the mouse lens

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Page 1: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Page 2: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Figure 3.14 Lens induction in amphibians

Page 3: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Figure 3.15 Schematic diagram of induction of the mouse lens

Page 4: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Figure 3.16 Feather induction in the chick

Page 5: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus
Page 6: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Figure 3.18 Genetic specificity of induction in amphibians

Page 7: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Figure 3.20 Fgf8 in the developing chick (Part 1)

Page 8: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Figure 3.20 Fgf8 in the developing chick (Part 2)

Page 9: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Figure 3.19 Structure and function of a receptor tyrosine kinase

Page 10: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Figure 3.20 Fgf8 in the developing chick

Page 11: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Figure 3.21 The widely used RTK signal transduction pathway

Page 12: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Figure 3.22 Activation of MITF transcription factor through the binding of stem cell factor by the Kit RTK protein (Part 2)

Page 13: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Figure 3.22 Activation of MITF transcription factor through the binding of stem cell factor by the Kit RTK protein (Part 1)

Page 14: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Tunicate life cycle

Page 15: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Part Figure II.2 Autonomous specification in the early tunicate embyro (Part 1)

Page 16: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Part Figure II.2 Autonomous specification in the early tunicate embyro (Part 2)

Page 17: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Part Figure II.3 Microsurgery on tunicate eggs forces some of the yellow crescent cytoplasm of the muscle-forming B4.1 blastomeres to enter the b4.2 blastomere pair

Page 18: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Part Figure II.4 Conditional specification

Page 19: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Part Figure II.6 Roux’s attempt to demostrate autonomous specification

Page 20: Figure 3.13 Ectodermal competence and the ability to respond to the optic vesicle inducer in Xenopus

Part Figure II.7 Driesch’s demonstration of conditional specification