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家畜及其他动物下丘脑-垂体-肾上腺轴活性的遗传变异

Genetic Variation of Hypothalamic-Pituitary-Adrenal Axis Activity in Farm Animals and Beyond.

作者信息

Mormede Elena, Mormede Pierre

机构信息

GenPhySE, Université de Toulouse, INRAE, INPT, ENVT, Toulouse, France.

出版信息

Neuroendocrinology. 2025;115(2):128-137. doi: 10.1159/000542831. Epub 2024 Dec 3.

DOI:10.1159/000542831
PMID:39626641
Abstract

BACKGROUND

Many experimental data in several species clearly demonstrate the important genetic contribution to variations in HPA axis activity. The influence of corticosteroid hormones on adaptive processes and on production traits such as growth rate, feed efficiency, carcass composition, and meat quality is a strong impetus to the search for the molecular bases of these differences for efficient genetic selection.

SUMMARY

Three main sources of genetic variability have been documented so far in farm animal species, the adrenal cortex sensitivity to ACTH-regulating corticosteroid hormone production, the bioavailability of corticosteroid hormones and especially corticosteroid-binding globulin capacity, and glucocorticoid receptor function. The effect of single mutations may be dependent on the genetic background, and genetic variation of cortisol levels may have different functional consequences depending on the molecular mechanisms responsible for this change.

KEY MESSAGES

Understanding the genetic basis of HPA axis activity allows the development of genomic tools and breeding technologies aimed at improving adaptive capacity and stress tolerance in farm animals and their use as valuable models for the genetic study of the HPA axis and the correlation with adaptation, metabolism, and other functions regulated by adrenal hormones, and associated pathologies (obesity, cardiovascular, etc.). The next step will be to explore HPA axis variability from a system genetics perspective including the multiple sources of variation and their interactions. This multifactorial approach is a prerequisite to the use of the HPA axis phenotypes in the genetic selection for more productive and robust animals, with a high level of production of quality products.

摘要

背景

多个物种的许多实验数据清楚地表明了基因对下丘脑-垂体-肾上腺(HPA)轴活性变化的重要贡献。皮质类固醇激素对适应性过程以及对生长速度、饲料效率、胴体组成和肉质等生产性状的影响,有力地推动了人们寻找这些差异的分子基础,以便进行有效的遗传选择。

总结

迄今为止,在家畜物种中已记录到三种主要的遗传变异来源,即肾上腺皮质对促肾上腺皮质激素调节皮质类固醇激素分泌的敏感性、皮质类固醇激素的生物利用度,尤其是皮质类固醇结合球蛋白的能力,以及糖皮质激素受体功能。单个突变的影响可能取决于遗传背景,皮质醇水平的遗传变异可能因导致这种变化的分子机制不同而产生不同的功能后果。

关键信息

了解HPA轴活性的遗传基础有助于开发基因组工具和育种技术,旨在提高家畜的适应能力和应激耐受性,并将其用作HPA轴遗传研究以及与适应、代谢和肾上腺激素调节的其他功能及相关病理(肥胖、心血管疾病等)相关性研究的有价值模型。下一步将从系统遗传学角度探索HPA轴的变异性,包括多种变异来源及其相互作用。这种多因素方法是在遗传选择中利用HPA轴表型培育更高产、更强健且能生产高质量产品的家畜的先决条件。

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