Keifer Joyce, Summers Cliff H
Neuroscience Group, Division of Basic Biomedical Sciences, Sanford School of Medicine, University of South Dakota Vermillion, SD, USA.
Neuroscience Group, Division of Basic Biomedical Sciences, Sanford School of Medicine, University of South DakotaVermillion, SD, USA; Department of Biology, University of South DakotaVermillion, SD, USA.
Front Syst Neurosci. 2016 Aug 22;10:69. doi: 10.3389/fnsys.2016.00069. eCollection 2016.
Current trends in neuroscience research have moved toward a reliance on rodent animal models to study most aspects of brain function. Such laboratory-reared animals are highly inbred, have been disengaged from their natural environments for generations and appear to be of limited predictive value for successful clinical outcomes. In this Perspective article, we argue that research on a rich diversity of animal model systems is fundamental to new discoveries in evolutionarily conserved core physiological and molecular mechanisms that are the foundation of human brain function. Analysis of neural circuits across phyla will reveal general computational solutions that form the basis for adaptive behavioral responses. Further, we stress that development of ethoexperimental approaches to improve our understanding of behavioral nuance will help to realign our research strategies with therapeutic goals and improve the translational validity of specific animal models. Finally, we suggest that neuroscience has a role in environmental conservation of habitat and fauna that will preserve and protect the ecological settings that drive species-specific behavioral adaptations. A rich biodiversity will enhance our understanding of human brain function and lead in unpredicted directions for development of therapeutic treatments for neurological disorders.
神经科学研究的当前趋势已转向依赖啮齿动物模型来研究大脑功能的大多数方面。这些实验室饲养的动物高度近亲繁殖,已经几代脱离其自然环境,对于成功的临床结果而言,其预测价值似乎有限。在这篇观点文章中,我们认为对丰富多样的动物模型系统进行研究,对于在进化上保守的核心生理和分子机制方面取得新发现至关重要,而这些机制是人类大脑功能的基础。对不同门动物神经回路的分析将揭示构成适应性行为反应基础的一般计算解决方案。此外,我们强调,开发行为实验方法以增进我们对行为细微差别的理解,将有助于使我们的研究策略与治疗目标重新对齐,并提高特定动物模型的转化效度。最后,我们建议神经科学在栖息地和动物群的环境保护中发挥作用,这将保护和维护驱动物种特异性行为适应的生态环境。丰富的生物多样性将增进我们对人类大脑功能的理解,并为神经疾病治疗方法的开发带来意想不到的方向。