Departments of Chemistry and Physics, and Center for Biophysics and Computational Biology, University of Illinois, Urbana, Illinois 61801, USA.
J Chem Phys. 2013 Sep 28;139(12):121701. doi: 10.1063/1.4820139.
Chemical physics as a discipline contributes many experimental tools, algorithms, and fundamental theoretical models that can be applied to biological problems. This is especially true now as the molecular level and the systems level descriptions begin to connect, and multi-scale approaches are being developed to solve cutting edge problems in biology. In some cases, the concepts and tools got their start in non-biological fields, and migrated over, such as the idea of glassy landscapes, fluorescence spectroscopy, or master equation approaches. In other cases, the tools were specifically developed with biological physics applications in mind, such as modeling of single molecule trajectories or super-resolution laser techniques. In this introduction to the special topic section on chemical physics of biological systems, we consider a wide range of contributions, all the way from the molecular level, to molecular assemblies, chemical physics of the cell, and finally systems-level approaches, based on the contributions to this special issue. Chemical physicists can look forward to an exciting future where computational tools, analytical models, and new instrumentation will push the boundaries of biological inquiry.
化学物理学作为一门学科,贡献了许多实验工具、算法和基本理论模型,这些都可以应用于生物学问题。在分子水平和系统水平的描述开始连接的今天,这种情况尤其如此,并且正在开发多尺度方法来解决生物学中的前沿问题。在某些情况下,概念和工具最初是在非生物领域发展起来的,然后迁移过来的,例如玻璃态景观、荧光光谱学或主方程方法的概念。在其他情况下,这些工具是专门为生物物理学应用而开发的,例如单分子轨迹建模或超分辨率激光技术。在这个关于生物系统化学物理学的专题部分的介绍中,我们考虑了广泛的贡献,从分子水平到分子组装、细胞的化学物理学,最后是系统水平的方法,这都是基于对这个特刊的贡献。化学物理学家可以期待一个激动人心的未来,计算工具、分析模型和新仪器将推动生物学研究的边界。