Seicol Benjamin J, Bejarano Sebastian, Behnke Nicholas, Guo Liang
1Neuroscience Graduate Program, The Ohio State University, Columbus, OH USA.
2Department of Neuroscience, The Ohio State University, Columbus, OH USA.
J Biol Eng. 2019 Aug 1;13:67. doi: 10.1186/s13036-019-0194-z. eCollection 2019.
Neuromodulation of central and peripheral neural circuitry brings together neurobiologists and neural engineers to develop advanced neural interfaces to decode and recapitulate the information encoded in the nervous system. Dysfunctional neuronal networks contribute not only to the pathophysiology of neurological diseases, but also to numerous metabolic disorders. Many regions of the central nervous system (CNS), especially within the hypothalamus, regulate metabolism. Recent evidence has linked obesity and diabetes to hyperactive or dysregulated autonomic nervous system (ANS) activity. Neural regulation of metabolic functions provides access to control pathology through neuromodulation. Metabolism is defined as cellular events that involve catabolic and/or anabolic processes, including control of systemic metabolic functions, as well as cellular signaling pathways, such as cytokine release by immune cells. Therefore, neuromodulation to control metabolic functions can be used to target metabolic diseases, such as diabetes and chronic inflammatory diseases. Better understanding of neurometabolic circuitry will allow for targeted stimulation to modulate metabolic functions. Within the broad category of metabolic functions, cellular signaling, including the production and release of cytokines and other immunological processes, is regulated by both the CNS and ANS. Neural innervations of metabolic (e.g. pancreas) and immunologic (e.g. spleen) organs have been understood for over a century, however, it is only now becoming possible to decode the neuronal information to enable exogenous controls of these systems. Future interventions taking advantage of this progress will enable scientists, engineering and medical doctors to more effectively treat metabolic diseases.
中枢和外周神经回路的神经调节汇聚了神经生物学家和神经工程师,以开发先进的神经接口,用于解码和重现神经系统中编码的信息。功能失调的神经网络不仅导致神经疾病的病理生理过程,还与多种代谢紊乱有关。中枢神经系统(CNS)的许多区域,尤其是下丘脑内的区域,调节新陈代谢。最近的证据表明肥胖和糖尿病与自主神经系统(ANS)活动亢进或失调有关。代谢功能的神经调节为通过神经调节控制病理过程提供了途径。新陈代谢被定义为涉及分解代谢和/或合成代谢过程的细胞活动,包括全身代谢功能的控制以及细胞信号通路,如免疫细胞释放细胞因子。因此,用于控制代谢功能的神经调节可用于治疗代谢疾病,如糖尿病和慢性炎症性疾病。更好地理解神经代谢回路将有助于进行有针对性的刺激以调节代谢功能。在广泛的代谢功能类别中,细胞信号传导,包括细胞因子的产生和释放以及其他免疫过程,受中枢神经系统和自主神经系统的调节。代谢(如胰腺)和免疫(如脾脏)器官的神经支配已被认识了一个多世纪,然而,直到现在才有可能解码神经元信息以实现对这些系统的外部控制。利用这一进展的未来干预措施将使科学家、工程师和医生能够更有效地治疗代谢疾病。