Rate My Professor Melanie Prescott

Melanie Prescott serves as a research academic in the Department of Physiology, School of Biomedical Sciences, at the University of Otago. She is affiliated with the Centre for Neuroendocrinology and contributes to investigations into neuroendocrine mechanisms regulating reproduction. Her work appears in numerous peer-reviewed publications exploring brain circuit alterations, androgen signaling, GABA neuron functions, kisspeptin neuron projections, progesterone receptor expression, and related phenomena in preclinical models.

Prescott has co-authored key papers including 'Ontogeny and reversal of brain circuit abnormalities in a preclinical model of PCOS' (Silva et al., 2018, cited 114 times); 'Dendritic Spine Plasticity in Gonadotropin-Releasing Hormone Neurons' (Chan et al., 2011, cited 58 times); 'Activation of a Classic Hunger Circuit Slows Luteinizing Hormone Pulsatility' (Coutinho et al., 2020, cited 54 times); 'Impact of chronic variable stress on neuroendocrine regulation of reproduction' (Nair et al., 2021, cited 36 times); 'Chronic androgen excess in female mice does not impact fertility' (Coyle et al., 2022, cited 31 times); 'Morphological evidence indicates a role for microglia in shaping the PCOS-like brain' (Sati et al., 2021, cited 26 times); 'The influence of maternal androgen excess on the male reproductive axis' (Holland et al., 2019, cited 21 times); 'Investigating GABA Neuron-Specific Androgen Receptor Knockout in a Prenatal Androgen Excess Model of PCOS' (Sucquart et al., 2024, cited 22 times); 'Perspective for a biological origin of sexual dysfunction in PCOS' (Donaldson et al., 2023, cited 11 times); 'Prenatal androgenization causes expression changes of genes involved in GABAergic transmission in the arcuate nucleus' (Watanabe et al., 2021, cited 14 times); 'The androgen clock is an epigenetic predictor of long-term male hormone exposure' (Sugrue et al., 2025, cited 3 times); and 'Forebrain AR deletion restores PR expression but not reproductive dysfunction in a PCOS mouse model' (Lott et al., 2025, cited 1 time). These contributions have advanced understanding of PCOS-like traits and neural underpinnings of reproductive disorders.