NMC Biolab, New Mexico Consortium, Los Alamos, NM, USA.
NMC Biolab, New Mexico Consortium, Los Alamos, NM, USA; Los Alamos National Laboratory, Los Alamos, NM 87544, USA.
Sci Total Environ. 2022 Sep 10;838(Pt 2):155915. doi: 10.1016/j.scitotenv.2022.155915. Epub 2022 May 11.
Throughout the years all data from epidemiological, physiological and omics have suggested that the microbial communities play a considerable role in modulating human health. The population of microorganisms residing in the human intestine collectively known as microbiota presents a genetic repertoire that is higher in magnitude than the human genome. They play an essential role in host immunity and neuronal signaling. Rapid enhancement of sequence based screening and development of humanized gnotobiotic model has sparked a great deal of interest among scientists to probe the dynamic interactions of the commensal bacteria. This review focuses on systemic analysis of the gut microbiome to decipher the complexity of the host-microbe intercommunication and gives a special emphasis on the evolution of targeted precision medicine through microbiome engineering. In addition, we have also provided a comprehensive description of how interconnection between metabolism and biochemical reactions in a specific organism can be obtained from a metabolic network or a flux balance analysis and combining multiple datasets helps in the identification of a particular metabolite. The review highlights how genetic modification of the critical components and programming the resident microflora can be employed for targeted precision medicine. Inspite of the ongoing debate on the utility of gut microbiome we have explored on the probable new therapeutic avenues like FMT (Fecal microbiota transplant) can be utilized. This review also recapitulates integrating human-relevant 3D cellular models coupled with computational models and the metadata obtained from interventional and epidemiological studies may decipher the complex interactome of diet-microbiota-disease pathophysiology. In addition, it will also open new avenues for the development of therapeutics derived from microbiome or implementation of personalized nutrition. In addition, the identification of biomarkers can also help towards the development of new diagnostic tools and eventually will lead to strategic management of the disease. Inspite of the ongoing debate on the utility of the gut microbiome we have explored how probable new therapeutic avenues like FMT (Fecal microbiota transplant) can be utilized. This review also summarises integrating human-relevant 3D cellular models coupled with computational models and the metadata obtained from interventional and epidemiological studies may decipher the complex interactome of diet- microbiota-disease pathophysiology. In addition, it will also open new avenues for the development of therapeutics derived from the microbiome or implementation of personalized nutrition. In addition, the identification of biomarkers can also help towards the development of new diagnostic tools and eventually will lead to strategic management of disease.
多年来,所有来自流行病学、生理学和组学的数据都表明,微生物群落在调节人类健康方面起着相当大的作用。居住在人类肠道中的微生物群体统称为微生物群,其基因谱的规模大于人类基因组。它们在宿主免疫和神经元信号中起着至关重要的作用。基于序列的快速增强筛选和人源化无菌模型的发展激发了科学家们极大的兴趣,以探究共生细菌的动态相互作用。本综述重点分析了肠道微生物组的系统分析,以破译宿主-微生物相互交流的复杂性,并特别强调通过微生物组工程实现靶向精准医学的演变。此外,我们还全面描述了如何从代谢网络或通量平衡分析中获得特定生物体中代谢和生化反应的相互联系,并结合多个数据集有助于识别特定代谢物。该综述强调了如何对关键组件进行遗传修饰和对常驻微生物群进行编程,以用于靶向精准医学。尽管人们对肠道微生物组的实用性仍存在争议,但我们已经探讨了可能的新治疗途径,如粪便微生物群移植 (FMT) 的应用。本综述还回顾了整合与人类相关的 3D 细胞模型与计算模型以及从干预和流行病学研究中获得的元数据,可能可以阐明饮食-微生物群-疾病病理生理学的复杂互作网络。此外,它还将为开发源自微生物组的疗法或实施个性化营养开辟新途径。此外,生物标志物的鉴定也有助于开发新的诊断工具,并最终将导致疾病的战略管理。尽管人们对肠道微生物组的实用性仍存在争议,但我们已经探讨了可能的新治疗途径,如粪便微生物群移植 (FMT) 的应用。本综述还总结了整合与人类相关的 3D 细胞模型与计算模型以及从干预和流行病学研究中获得的元数据,可能可以阐明饮食-微生物群-疾病病理生理学的复杂互作网络。此外,它还将为开发源自微生物组的疗法或实施个性化营养开辟新途径。此外,生物标志物的鉴定也有助于开发新的诊断工具,并最终将导致疾病的战略管理。