Institute of Bioengineering, School of Engineering, École Polytechnique Fédérale de Lausanne, Lausanne, Switzerland.
Curr Opin Biotechnol. 2011 Feb;22(1):59-65. doi: 10.1016/j.copbio.2010.08.010.
DNA technologies such as cloning, DNA microarrays, and next generation sequencing have transformed the life sciences. Protein technologies on the other hand have not seen such explosive progress. This is mainly due to the inherent difficulty of working with proteins because of their manifold physical characteristics as opposed to the well behaved and well understood DNA polymer. Recent technological advancements have increased the throughput of protein biochemistry to levels where it is becoming of interest to systems biology. Here I review methods for high-throughput in situ synthesis and characterization of proteins and their integration with microfluidic devices. In the near future, the use of gene synthesis, microfluidic based protein synthesis and characterization will give rise to a resurgence of protein biochemistry in the current world of high-throughput genomics.
DNA 技术,如克隆、DNA 微阵列和下一代测序,已经改变了生命科学。另一方面,蛋白质技术并没有看到如此爆炸式的进步。这主要是由于蛋白质的固有特性,因为它们具有多种物理特性,而不是像 DNA 聚合物那样易于处理和理解。最近的技术进步提高了蛋白质生物化学的通量,使其成为系统生物学的关注点。在这里,我回顾了高通量原位合成和蛋白质特性分析的方法,并将其与微流控设备集成。在不久的将来,基因合成、基于微流控的蛋白质合成和特性分析的使用将在高通量基因组学的当前世界中引发蛋白质生物化学的复兴。