Course review

D3.1 Reproduction

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Learning objective

D3.1.1—Sexual vs. asexual reproduction

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• Asexual reproduction uses mitosis without gametes or fertilization, producing clones • Sexual reproduction uses meiosis and fertilization to generate genetic variation

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Learning objective

D3.1.2—Role of meiosis and gamete fusion

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• Meiosis produces haploid gametes and prevents chromosome doubling each generation • Random fertilization fuses gametes to form unique diploid zygotes

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Learning objective

D3.1.3—Male vs. female sexes

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• Male gametes are small, numerous, and usually motile • Female gametes are larger, fewer, and contain resources for early development

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Learning objective

D3.1.4—Human reproductive system anatomy

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• Male structures include testes, epididymis, sperm duct, glands, urethra, and penis • Female structures include ovaries, oviducts, uterus, endometrium, cervix, vagina, and vulva

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Learning objective

D3.1.5—Ovarian and uterine cycles

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• FSH, LH, oestradiol, and progesterone coordinate ovarian and uterine cycles • Follicle growth, ovulation, corpus luteum, endometrium build-up, and menstruation are linked

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D3.1.6—Fertilization in humans

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• Fertilization occurs in the oviduct after sperm reaches the egg • Sperm and egg nuclei fuse so paternal and maternal chromosomes form the zygote genome

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D3.1.7—In vitro fertilization (IVF)

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• IVF uses hormones to stimulate superovulation and control egg maturation • Eggs are collected, fertilized outside the body, and embryos transferred to the uterus

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Learning objective

D3.1.8—Sexual reproduction in flowering plants

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• Flowering plants produce male gametes in pollen and female gametes in ovules • Pollination, pollen-tube growth, and fertilization produce embryos inside seeds

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Learning objective

D3.1.9—Insect-pollinated flower features

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• Insect-pollinated flowers often have petals, scent, nectar, sticky pollen, and sticky stigma • Floral structures position pollinators to transfer pollen from anther to stigma

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Learning objective

D3.1.10—Promoting cross-pollination

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• Cross-pollination increases variation by transferring pollen between different plants • Mechanisms include dioecy, self-incompatibility, and different maturation times

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D3.1.11—Self-incompatibility mechanisms

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• Self-incompatibility prevents pollen from fertilizing ovules of the same plant • Recognition systems block self-pollen growth and reduce inbreeding

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D3.1.12—Seed dispersal and germination

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• Seed dispersal reduces competition with parent plants and spreads offspring • Germination uses water uptake, enzyme activation, and food reserve mobilization

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