Awazawa Motoharu
Department of Molecular Diabetic Medicine, Diabetes Research Center, Research Institute, National Center for Global Health and Medicine, 1-21-1 Toyama, Shinjuku, Tokyo, 162-8655 Japan.
Diabetol Int. 2021 Aug 26;12(4):343-348. doi: 10.1007/s13340-021-00536-z. eCollection 2021 Oct.
In recent years, the techniques in molecular biology have been dramatically advanced, and consequently the landscape of metabolism research has undergone a remarkable change. One of the emerging pictures as the fruits of these advancements is one depicting the regulation of systemic metabolism through inter-organ networks involving multiple tissues, either via humoral factors, which are secreted from one tissue and conveyed to their remote target tissues, or through neuronal networks which are integrated by the central nervous system. In addition, the progress in high-throughput research tools enabled detailed characterization and deeper understanding of the nature of human genome, which has attracted much attention to the importance of various non-coding RNAs species. These non-coding RNAs are often co-expressed and co-regulated with adjacent protein coding genes, adding higher levels of complexities by them functioning together as a system and often influencing biologically important pathways in a cooperative manner. Here in this review several examples of these regulatory network systems are presented, illustrating the significance of them in systemic metabolism, with a possible future research direction also being proposed.
近年来,分子生物学技术取得了巨大进展,代谢研究领域也因此发生了显著变化。这些进展带来的一个新趋势是,通过涉及多个组织的器官间网络来调节全身代谢,调节方式包括通过体液因子(从一个组织分泌并传递到远处的靶组织)或通过由中枢神经系统整合的神经网络。此外,高通量研究工具的进步使人们能够详细表征和更深入地了解人类基因组的本质,这引起了人们对各种非编码RNA种类重要性的高度关注。这些非编码RNA通常与相邻的蛋白质编码基因共表达和共调控,它们作为一个系统共同发挥作用,常常以协同方式影响生物学上重要的途径,从而增加了更高层次的复杂性。本文综述了这些调控网络系统的几个例子,阐述了它们在全身代谢中的重要性,并提出了可能的未来研究方向。