Combinatorial, additive and dose-dependent drug-microbiome associations.
Sofia Kirke Forslund-StartcevaRima ChakarounMaria Zimmermann-KogadeevaLajos MarkóJudith Aron-WisnewskyTrine NielsenLucas Moitinho-SilvaThomas S B SchmidtGwen FalonySara Vieira-SilvaSolia AdriouchRenato Jc AlvesKaren AssmannJean-Philippe BastardTill BirknerRobert CaesarJulien ChillouxLuis Pedro CoelhoLeopold FezeuNathalie GalleronGerard HelftRichard IsnardBoyang JiMichael KuhnEmmanuelle Le ChatelierAntonis MyridakisLisa M OlssonNicolas PonsEdi PriftiBenoit QuinquisHugo RoumeJoe-Elie SalemNataliya SokolovskaValentina TremaroliMireia Valles-ColomerChristian LewinterNadja B SønderskovHelle Krogh PedersenTue Haldor Hansennull nullJens Peter GøtzeLars Valeur KøberHenrik VestergaardTorben HansenJean-Daniel ZuckerSerge HercbergJean-Michel OppertIvica LetunicJens B NielsenFredrik BäckhedStanislav Dusko EhrlichMarc Emmanuel DumasJeroen RaesOluf PedersenKarine ClementMichael StumvollPeer BorkPublished in: Nature (2021)
During the transition from a healthy state to cardiometabolic disease, patients become heavily medicated, which leads to an increasingly aberrant gut microbiome and serum metabolome, and complicates biomarker discovery1-5. Here, through integrated multi-omics analyses of 2,173 European residents from the MetaCardis cohort, we show that the explanatory power of drugs for the variability in both host and gut microbiome features exceeds that of disease. We quantify inferred effects of single medications, their combinations as well as additive effects, and show that the latter shift the metabolome and microbiome towards a healthier state, exemplified in synergistic reduction in serum atherogenic lipoproteins by statins combined with aspirin, or enrichment of intestinal Roseburia by diuretic agents combined with beta-blockers. Several antibiotics exhibit a quantitative relationship between the number of courses prescribed and progression towards a microbiome state that is associated with the severity of cardiometabolic disease. We also report a relationship between cardiometabolic drug dosage, improvement in clinical markers and microbiome composition, supporting direct drug effects. Taken together, our computational framework and resulting resources enable the disentanglement of the effects of drugs and disease on host and microbiome features in multimedicated individuals. Furthermore, the robust signatures identified using our framework provide new hypotheses for drug-host-microbiome interactions in cardiometabolic disease.