Andermann Mark L, Lowell Bradford B
Division of Endocrinology, Diabetes, and Metabolism, Department of Medicine, Beth Israel Deaconess Medical Center, Boston, MA 02215, USA; Program in Neuroscience, Harvard Medical School, Boston, MA 02115, USA.
Neuron. 2017 Aug 16;95(4):757-778. doi: 10.1016/j.neuron.2017.06.014.
Prior mouse genetic research has set the stage for a deep understanding of appetite regulation. This goal is now being realized through the use of recent technological advances, such as the ability to map connectivity between neurons, manipulate neural activity in real time, and measure neural activity during behavior. Indeed, major progress has been made with regard to meal-related gut control of appetite, arcuate nucleus-based hypothalamic circuits linking energy state to the motivational drive, hunger, and, finally, limbic and cognitive processes that bring about hunger-mediated increases in reward value and perception of food. Unexpected findings are also being made; for example, the rapid regulation of homeostatic neurons by cues that predict future food consumption. The aim of this review is to cover the major underpinnings of appetite regulation, describe recent advances resulting from new technologies, and synthesize these findings into an updated view of appetite regulation.
先前的小鼠遗传学研究为深入理解食欲调节奠定了基础。如今,通过利用最新的技术进展,如绘制神经元之间的连接图谱、实时操纵神经活动以及在行为过程中测量神经活动,这一目标正在得以实现。事实上,在与进食相关的肠道对食欲的控制、基于弓状核的下丘脑回路(将能量状态与动机驱动、饥饿联系起来)以及最终导致饥饿介导的奖励价值和食物感知增加的边缘系统和认知过程方面,已经取得了重大进展。同时也有一些意外发现;例如,预测未来食物消耗的线索对稳态神经元的快速调节。本综述的目的是涵盖食欲调节的主要基础,描述新技术带来的最新进展,并将这些发现综合成一个关于食欲调节的更新观点。