MAtching Genes with MOLecules for FUNctional Analysis (MAGic-MOLFUN)
Lead Research Organisation:
University of Strathclyde
Department Name: Inst of Pharmacy and Biomedical Sci
Abstract
The MAGIC-MOLFUN doctoral network (DN) will train the next generation of specialists for transforming natural products research. They will be educated in a combination of wet-lab and computational skills to integrate genome mining and metabolomics with cutting-edge pathway discovery and engineering approaches.
There is a fast-growing demand for these combination of skills, but these are rarely taught in current integrated training programs.These multidisciplinary skills and qualifications will be acquired while achieving the scientific goals of the program, namely understanding and developing the complex biosynthesis and production of microbial NPs for cross-sector applications such as medicine, food, agriculture, or biotechnology.
Specifically, the Doctoral Candidates (DCs) will work in three areas: (i) develop novel computational tools and algorithms to improve the identification and prediction quality of biosynthetic gene clusters encoding NP biosynthesis in genomic data. This genome-centred approach is complemented by (ii) the use cheminformatics approaches to link metabolomics data of NPs with the genomic data of the producers, which will greatly improve the compound discovery and dereplication process. These two data-centric approaches will finally (iii) converge into experimental applications that discover and characterize novel NPs with promising bioactivities (e.g., antibiotics, pre-/probiotics, agrichemicals, bio-pigments).
The scientific training program is complemented by a comprehensive transferable skill training that will equip the DCs for todays' demands of a successful career in industry and academia. The skills obtained in the DN will enable the DCs to work not only in natural product research but also many other data-intensive areas of biotechnology.
There is a fast-growing demand for these combination of skills, but these are rarely taught in current integrated training programs.These multidisciplinary skills and qualifications will be acquired while achieving the scientific goals of the program, namely understanding and developing the complex biosynthesis and production of microbial NPs for cross-sector applications such as medicine, food, agriculture, or biotechnology.
Specifically, the Doctoral Candidates (DCs) will work in three areas: (i) develop novel computational tools and algorithms to improve the identification and prediction quality of biosynthetic gene clusters encoding NP biosynthesis in genomic data. This genome-centred approach is complemented by (ii) the use cheminformatics approaches to link metabolomics data of NPs with the genomic data of the producers, which will greatly improve the compound discovery and dereplication process. These two data-centric approaches will finally (iii) converge into experimental applications that discover and characterize novel NPs with promising bioactivities (e.g., antibiotics, pre-/probiotics, agrichemicals, bio-pigments).
The scientific training program is complemented by a comprehensive transferable skill training that will equip the DCs for todays' demands of a successful career in industry and academia. The skills obtained in the DN will enable the DCs to work not only in natural product research but also many other data-intensive areas of biotechnology.
Publications
Parra J
(2023)
Antibiotics from rare actinomycetes, beyond the genus Streptomyces.
in Current opinion in microbiology
Poynton E
(2025)
The Natural Products Atlas 3.0: extending the database of microbially derived natural products
in Nucleic Acids Research
Related Projects
| Project Reference | Relationship | Related To | Start | End | Award Value |
|---|---|---|---|---|---|
| EP/X03142X/1 | 31/03/2023 | 31/12/2023 | £265,251 | ||
| EP/X03142X/2 | Transfer | EP/X03142X/1 | 01/01/2024 | 30/03/2027 | £239,209 |
| Description | The project is ongoing but is contributing to the development of new tools for linking microbial genes to chemistry |
| Exploitation Route | Linking genes to chemistry is a fundamental bottleneck for discovery, by doing so you open up routes to produce molecules more efficiently as well as learn more about why chemistry is produced and what influences production |
| Sectors | Pharmaceuticals and Medical Biotechnology |
| Description | Prof Roger Linington seminar visit |
| Organisation | Simon Fraser University |
| Country | Canada |
| Sector | Academic/University |
| PI Contribution | Prof Roger Linington collaboration research visit to University of Strathclyde Oct 2023 - hosting and individual meetings with team to aid in project design and future grant writing |
| Collaborator Contribution | Seminar delivery and engaging in research discussions and future collaboration ideas |
| Impact | Professor Roger G. Linington Microbiology & Industrial Biotechnology Seminar University of Strathclyde SIPBS HW114 (Hamnett Wing) Tuesday 24th October 17, 2023 15:00-16:00 Simon Fraser University, Vancouver. https://linington.chem.sfu.ca |
| Start Year | 2023 |
