Koulman A, Volmer D A
Medical Research Council Human Nutrition Research, Cambridge, UK.
Nutr Bull. 2008 Dec;33(4):324-330. doi: 10.1111/j.1467-3010.2008.00733.x.
Metabolomics describes the measurement of the full complement of the products of metabolism in a single biological sample and correlating these metabolomic profiles with known physiological or pathological states. The metabolome offers the possibility of finding unique fingerprints responsible for different phenotypes. Analytical techniques such as nuclear magnetic resonance or mass spectrometry measure thousands of compounds within the metabolome simultaneously and appropriate data mining and database tools allow the finding of significant correlations between the measured metabolomes. The first direct outcome of nutritional metabolomics will be the discovery of biomarkers, which can reveal changes in health and disease but also indicate short term and long-term dietary intake. The concerted actions of nutrigenomics and metabolomics will play a crucial role in understanding how specific interactions of single nucleotide polymorphisms (SNP) influence a person's response to a diet. Finally, systems biology approaches to human nutrition combine transcriptomics, proteomics and metabolomics with the aim of understanding how diets interact within the human being.
代谢组学描述了对单个生物样本中代谢产物的完整补充进行测量,并将这些代谢组学谱与已知的生理或病理状态相关联。代谢组提供了找到负责不同表型的独特指纹的可能性。诸如核磁共振或质谱等分析技术可同时测量代谢组中的数千种化合物,而适当的数据挖掘和数据库工具则有助于发现所测代谢组之间的显著相关性。营养代谢组学的首个直接成果将是生物标志物的发现,这些生物标志物不仅可以揭示健康和疾病方面的变化,还能表明短期和长期的饮食摄入情况。营养基因组学和代谢组学的协同作用将在理解单核苷酸多态性(SNP)的特定相互作用如何影响一个人对饮食的反应方面发挥关键作用。最后,人类营养的系统生物学方法将转录组学、蛋白质组学和代谢组学结合起来,旨在了解饮食在人体内是如何相互作用的。