Institute of Sport Science, Seoul National University, Seoul 08826, Republic of Korea.
International Institute for Applied Systems Analysis (IIASA), A-2361 Laxenburg, Austria.
Int J Environ Res Public Health. 2022 Dec 22;20(1):166. doi: 10.3390/ijerph20010166.
This study explored the biological autonomy and control of function in circumstances that assessed the presumed relationship of an organism with an environmental cycle. An understanding of this behavior appeals to the organism-environment system rather than just the organism. Therefore, we sought to uncover the laws underlying end-directed capabilities by measuring biological characteristics (motor synchrony) in an environmental cycle (circadian temperature). We found that the typical elementary coordination (bimanual) stability measure varied significantly as a function of the day-night temperature cycle. While circadian effects under artificially manipulated temperatures were not straightforward during the day-night temperature cycle, the circadian effect divided by the ordinary circadian rhythm remained constant during the day-night cycle. Our observation of this direct, robust relationship between the biological characteristics (body temperature and motor synchrony) and environmental processes (circadian temperature cycle) could mirror the adaptation of our biological system to the environment.
本研究探讨了在评估生物体与环境周期之间假定关系的情况下，生物体的功能的生物自主性和控制。对这种行为的理解涉及生物体-环境系统，而不仅仅是生物体。因此，我们试图通过测量环境周期（昼夜温度）中的生物特征（运动同步性）来揭示定向能力的基本规律。我们发现，典型的基本协调（双手）稳定性测量值随着昼夜温度周期的变化而显著变化。虽然在昼夜温度周期中，人为控制温度下的昼夜节律效应并不明显，但昼夜节律效应除以普通昼夜节律在昼夜周期中保持不变。我们观察到生物特征（体温和运动同步性）与环境过程（昼夜温度周期）之间的这种直接、强大的关系，可能反映了我们的生物系统对环境的适应。
