Gut microbiome-mediated activities of psychotropic drugs
This project aims to explore the role of gut microbiomes in the efficacy and side effects of psychotropic drugs, potentially revolutionizing personalized drug therapy for mental illnesses.
Projectdetails
Introduction
Mental illnesses are among the most prevalent health burdens, with major depression ranking fourth among the leading causes of disease worldwide. Although diverse psychotropic drugs are available, the delayed onset of drug action, high non-responder rates, and frequent side effects still pose significant challenges.
Background
Several observations suggest the gut microbiome as a major contributor to high inter-individual differences in drug responses. While there is evidence that these drugs lead to changes in the microbiome composition of patients, it has not yet been explored whether these effects are part of the drug mode of action and/or whether they contribute to side effects.
Project Aim
The aim of this project is to investigate to what extent gut microbes are involved in the therapeutic outcome of psychotropic drugs by employing model synthetic and patient-derived microbiome communities (from stool of drug responders, non-responders, and healthy controls), and in vivo gnotobiotic mouse models.
Methodology
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Characterization of Interactions
We will systematically characterize the reciprocal interactions between gut microbes and commonly used psychotropic drugs ex vivo – from microbial drug metabolism to drug-induced bacterial secretion of neuroactive compounds. -
Mechanism Elucidation
For intriguing interactions, we will elucidate the underlying mechanisms and use the knowledge to design engineered microbiomes. -
Gnotobiotic Mouse Models
We will then employ gnotobiotic knockout mice deficient for primary drug targets of psychotropic drugs and colonize them with microbiome communities carrying the different mapped traits to separate the contribution of drug effects originating from the microbiome from those of the host.
Expected Outcomes
Overall, our results will inform microbiome-guided therapeutic strategies whose improved efficacy we will test in vivo. Due to the transferability of the developed technology, if successful, this new research direction could not only revolutionize psychotropic drug therapy but also pave new ways for improving personalized drug therapy for many other diseases.
Financiële details & Tijdlijn
Financiële details
Subsidiebedrag | € 1.497.033 |
Totale projectbegroting | € 1.497.033 |
Tijdlijn
Startdatum | 1-1-2024 |
Einddatum | 31-12-2028 |
Subsidiejaar | 2024 |
Partners & Locaties
Projectpartners
- EBERHARD KARLS UNIVERSITAET TUEBINGENpenvoerder
Land(en)
Vergelijkbare projecten binnen European Research Council
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Gut microbiota drug biotransformation as a tool to unravel the mechanisms of metabolic microbiota-host interactions
This project aims to systematically study metabolic interactions between gut microbiota and hosts using drug biotransformation to improve understanding of microbiome-related health variations and drug responses.
Proteome-wide Functional Interrogation and Modulation of Gut Microbiome Species
This project aims to identify and manipulate gut microbiome protein functions using high-throughput proteomics to develop targeted therapies for restoring microbial health.
Resolving metabolic interactions between the gut microbiota and the host with multi-omics-based modelling
This project aims to systematically characterize gut bacteria interactions and their metabolic contributions to host health using experimental and computational methods, enabling targeted microbiota interventions.
Microbial ecosystems biology in the human gut
This project aims to develop a comprehensive ecosystem model of child gut microbiota using multiomic data to predict and manipulate microbial responses for improved health interventions.
Trafficking mechanisms and physiological factors mediating a direct gut microbiota-brain neuron interaction
This project aims to explore gut-brain interactions by investigating how microbial metabolites affect brain neurons, potentially leading to new therapies for sex- and age-dependent neurological disorders.