Clinical Brain Disorders Branch, NIMH/National Institutes of Health, Bethesda, MD 20892-1379, USA.
Rev Neurosci. 2010;21(1):67-81. doi: 10.1515/revneuro.2010.21.1.67.
The prevalence of obesity has increased dramatically worldwide, whereas the types of treatment and their efficacy have not substantially changed over the last two decades. Additionally, drugs used to control weight gain could occasionally create untoward effects in cardiovascular functions, as well as in behaviors, memory, sleep, and emotions because the molecular machinery responsible for ingestion control is interconnected with or shared by the above domains. How each group of drugs preserves the privacy of its message in the mutual network is not fully understood. In the present essay, the graph theory approach was used to explore some aspects of molecular signaling as though they were a 'language'. Its emphasis is on 'molecular polysemy', a term that refers to the ability of biomolecules to be used like words in natural languages more than one-way. This has physiological and clinical implications, in particular when planning drug designs with "specially engineered shotgun loads" that target a combination of biomolecules that assure a better therapeutic outcome without causing deficits in connected but patho-physiologically irrelevant bystanders.
肥胖的流行率在全球范围内显著增加,而在过去二十年中,治疗方法的类型及其疗效并没有实质性的改变。此外,用于控制体重增加的药物偶尔会对心血管功能以及行为、记忆、睡眠和情绪产生不良影响,因为负责摄入控制的分子机制与上述领域相互关联或共享。每个药物组如何在相互作用的网络中保护其信息的隐私尚未完全了解。在本文中,使用图论方法来探索分子信号传递的一些方面,就像它们是一种“语言”一样。它强调的是“分子多义性”,这是一个术语,是指生物分子能够像自然语言中的单词一样被多次使用的能力。这具有生理和临床意义,特别是在计划使用“特别设计的猎枪载荷”的药物设计时,这些药物的目标是结合生物分子,以确保更好的治疗效果,而不会对相关但病理生理学上无关的旁观者造成缺陷。