Figure 30.1 Sexually dimorphic anatomy in the hawk moth, Manduca sexta neuro4e-fig-30-01-0.jpg

Figure 30.1 Sexually dimorphic anatomy in the hawk moth, Manduca sexta (Part 1) neuro4e-fig-30-01-1r.jpg

Figure 30.1 Sexually dimorphic anatomy in the hawk moth, Manduca sexta (Part 2) neuro4e-fig-30-01-2r.jpg

Figure 30.2 Chromosomal sex and primary sex determination in humans neuro4e-fig-30-02-0.jpg

Figure 30.3 Gonadal sex steroids and their organizational influence neuro4e-fig-30-03-0.jpg

Figure 30.3 Gonadal sex steroids and their organizational influence (Part 1) neuro4e-fig-30-03-1r.jpg

Figure 30.3 Gonadal sex steroids and their organizational influence (Part 2) neuro4e-fig-30-03-2r.jpg

Figure 30.4 Sex steroid effects on neurons neuro4e-fig-30-04-0.jpg

Figure 30.4 Sex steroid effects on neurons (Part 1) neuro4e-fig-30-04-1r.jpg

Figure 30.4 Sex steroid effects on neurons (Part 2) neuro4e-fig-30-04-2r.jpg

Figure 30.5 Sex differences in innervation of the perineal muscles neuro4e-fig-30-05-0.jpg

Figure 30.5 Sex differences in innervation of the perineal muscles (Part 1) neuro4e-fig-30-05-1r.jpg

Figure 30.5 Sex differences in innervation of the perineal muscles (Part 2) neuro4e-fig-30-05-2r.jpg

Figure 30.5 Sex differences in innervation of the perineal muscles (Part 3) neuro4e-fig-30-05-3r.jpg

Figure 30.6 Hypothalamic nuclei are sexually dimorphic and their neuronal activity is associated with sexual behaviors neuro4e-fig-30-06-0.jpg

Figure 30.6 Hypothalamic nuclei are sexually dimorphic and their neuronal activity is associated with sexual behaviors (Part 1) neuro4e-fig-30-06-1r.jpg

Figure 30.6 Hypothalamic nuclei are sexually dimorphic and their neuronal activity is associated with sexual behaviors (Part 2) neuro4e-fig-30-06-2r.jpg

Figure 30.7 Hypothalamic regulation of lactation in nursing mothers neuro4e-fig-30-07-0.jpg

Figure 30.7 Hypothalamic regulation of lactation in nursing mothers (Part 1) neuro4e-fig-30-07-1r.jpg

Figure 30.7 Hypothalamic regulation of lactation in nursing mothers (Part 2) neuro4e-fig-30-07-2r.jpg

Figure 30.8 Cortical representation of the chest wall in the rat primary somatic sensory cortex during lactation neuro4e-fig-30-08-0.jpg

Figure 30.8 Cortical representation of the chest wall in the rat primary somatic sensory cortex during lactation (Part 1) neuro4e-fig-30-08-1r.jpg

Figure 30.8 Cortical representation of the chest wall in the rat primary somatic sensory cortex during lactation (Part 2) neuro4e-fig-30-08-2r.jpg

Figure 30.8 Cortical representation of the chest wall in the rat primary somatic sensory cortex during lactation (Part 3) neuro4e-fig-30-08-3r.jpg

Figure 30.8 Cortical representation of the chest wall in the rat primary somatic sensory cortex during lactation (Part 4) neuro4e-fig-30-08-4r.jpg

Box 30A The Good Mother neuro4e-box-30-a-0.jpg

Figure 30.9 Estrogen and testosterone influence neuronal growth and differentiation neuro4e-fig-30-09-0.jpg

Figure 30.9 Estrogen and testosterone influence neuronal growth and differentiation (Part 1) neuro4e-fig-30-09-1r.jpg

Figure 30.9 Estrogen and testosterone influence neuronal growth and differentiation (Part 2) neuro4e-fig-30-09-2r.jpg

Figure 30.9 Estrogen and testosterone influence neuronal growth and differentiation (Part 3) neuro4e-fig-30-09-3r.jpg

Figure 30.10 Estrogen influences synaptic transmission neuro4e-fig-30-10-0.jpg

Figure 30.10 Estrogen influences synaptic transmission (Part 1) neuro4e-fig-30-10-1r.jpg

Figure 30.10 Estrogen influences synaptic transmission (Part 2) neuro4e-fig-30-10-2r.jpg

Figure 30.11 Distribution in the rat brain of the three major receptor/transcription factors that bind sex hormones neuro4e-fig-30-11-0.jpg

Figure 30.11 Distribution in the rat brain of the three major receptor/transcription factors that bind sex hormones (Part 1) neuro4e-fig-30-11-1r.jpg

Figure 30.11 Distribution in the rat brain of the three major receptor/transcription factors that bind sex hormones (Part 2) neuro4e-fig-30-11-2r.jpg

Figure 30.12 Sex-specific splice isoforms of the Drosophila fruitless gene correlate with sex-specific courtship and mating behaviors neuro4e-fig-30-12-0.jpg

Figure 30.12 Sex-specific splice isoforms of the Drosophila fruitless gene correlate with sex-specific courtship and mating behaviors (Part 1) neuro4e-fig-30-12-1r.jpg

Figure 30.12 Sex-specific splice isoforms of the Drosophila fruitless gene correlate with sex-specific courtship and mating behaviors (Part 2) neuro4e-fig-30-12-2r.jpg

Figure 30.12 Sex-specific splice isoforms of the Drosophila fruitless gene correlate with sex-specific courtship and mating behaviors (Part 3) neuro4e-fig-30-12-3r.jpg

Figure 30.13 Distinct patterns of activation of estrogen and androgen in women and men neuro4e-fig-30-13-0.jpg

Figure 30.14 Brain regions that differ in size in females versus males neuro4e-fig-30-14-0.jpg

Figure 30.15 Sex-specific activation of the amygdala in response to memory of images with defined emotional content neuro4e-fig-30-15-0.jpg