RetSynth
RetSynth identifies optimal and sub-optimal synthetic metabolic pathways, including hybrid biological/non-biological routes, for producing target compounds in microbial chassis by enumerating fully independent pathways within metabolic networks.
Key Features:
- Optimal Pathway Identification: A novel algorithm enumerates all optimal pathways for target chemicals by focusing on fully independent pathways rather than the entire metabolic network.
- Dynamic constraint selection and scalability: The algorithm dynamically selects constraints to reduce computational complexity and enable scalable pathway enumeration.
- Sub-optimal and Hybrid Solutions: Identifies sub-optimal pathways and incorporates non-biological chemical reactions to generate hybrid biological/non-biological routes.
- Data Integration and Flux Balance Analysis: Integrates data from metabolic repositories and performs flux balance analysis to evaluate pathway feasibility.
- Ranking Criteria: Provides quantitative ranking metrics such as target yield for comparing and prioritizing synthetic routes.
Scientific Applications:
- Metabolic engineering: Supports engineering of microbial organisms for biological production of industrially and economically important compounds by streamlining pathway selection.
- Hybrid pathway design: Enables design of synthesis routes that combine biological reactions with non-biological chemical steps for compounds not accessible solely via metabolism.
Methodology:
A novel algorithm scales enumeration by focusing on fully independent pathways and dynamically selecting constraints; the approach incorporates non-biological chemical reactions, integrates data from metabolic repositories, and applies flux balance analysis to evaluate and rank pathways.
Topics
Details
- License:
- BSD-2-Clause
- Programming Languages:
- Python
- Added:
- 11/14/2019
- Last Updated:
- 12/13/2020
Operations
Publications
Whitmore LS, Nguyen B, Pinar A, George A, Hudson CM. RetSynth: determining all optimal and sub-optimal synthetic pathways that facilitate synthesis of target compounds in chassis organisms. BMC Bioinformatics. 2019;20(1). doi:10.1186/s12859-019-3025-9. PMID:31500573. PMCID:PMC6734243.