Centre for Biophotonics, LEC, Lancaster University, Lancaster LA1 4YQ, UK.
Expert Rev Mol Diagn. 2015 May;15(5):693-713. doi: 10.1586/14737159.2015.1028372. Epub 2015 Mar 24.
The complex processes driving cancer have so far impeded the discovery of dichotomous biomarkers associated with its initiation and progression. Reductionist approaches utilizing 'omics' technologies have met some success in identifying molecular alterations associated with carcinogenesis. Systems biology is an emerging science that combines high-throughput investigation techniques to define the dynamic interplay between regulatory biological systems in response to internal and external cues. Vibrational spectroscopy has the potential to play an integral role within systems biology research approaches. It is capable of examining global models of carcinogenesis by scrutinizing chemical bond alterations within molecules. The application of infrared or Raman spectroscopic approaches coupled with computational analysis under the systems biology umbrella can assist the transition of biomarker research from the molecular level to the system level. The comprehensive representation of carcinogenesis as a multilevel biological process will inevitably revolutionize cancer-related healthcare by personalizing risk prediction and prevention.
迄今为止,驱动癌症的复杂过程阻碍了发现与癌症起始和进展相关的二分生物标志物。利用“组学”技术的还原论方法在识别与癌变相关的分子改变方面取得了一定的成功。系统生物学是一门新兴的科学,它结合了高通量研究技术,以定义在内部和外部线索的作用下,调节生物系统之间的动态相互作用。振动光谱学有可能在系统生物学研究方法中发挥重要作用。它能够通过仔细研究分子内化学键的改变来检查癌变的全局模型。在系统生物学的保护伞下,将红外或拉曼光谱方法与计算分析相结合的应用,可以帮助将生物标志物研究从分子水平过渡到系统水平。将癌变作为一个多层次的生物过程进行综合描述,将不可避免地通过个性化风险预测和预防来彻底改变与癌症相关的医疗保健。