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MGMG: Cell Morphology-Guided Molecule Generation for Drug Discovery
Qiaosi Tang1, Daoyun Ding2, Xiaoyong Yuan3
1Department of Medicinal Chemistry, Center for Natural Products, Drug Discovery and Development, University of Florida, Gainesville, FL 32610, USA.
Biorxiv : the Preprint Server for Biology
|August 12, 2025
Summary
Morphology-Guided Molecule Generation (MGMG) enables drug discovery by integrating cell morphology and molecular text, bypassing the need for known drug targets. This novel approach designs diverse, bioactive molecules for diseases lacking target information.
Area of Science:
- Computational chemistry and cheminformatics
- Drug discovery and development
- Phenotypic screening and systems biology
Background:
- Designing novel bioactive molecules is a key challenge in drug discovery.
- Traditional target-based drug discovery is limited for diseases without known targets or reference compounds.
- Existing methods often fail when target information is unavailable or molecular descriptions are insufficient.
Purpose of the Study:
- To introduce Morphology-Guided Molecule Generation (MGMG), a novel approach for phenotypic drug discovery.
- To enable target-agnostic molecule design by integrating cellular morphology and molecular text data.
- To demonstrate MGMG's applicability to both compound and genetic perturbation-based activator design.
Main Methods:
- MGMG integrates cellular morphological profiles from compound treatments with molecular textual descriptions.
- The approach does not require prior knowledge of molecular targets or reference compounds.
- It leverages complementary structural and bioactivity information from both data types.
Main Results:
- MGMG significantly enhances molecule generation performance, especially with limited textual or morphological data.
- The method successfully designs activators from gene overexpression morphology without needing reference compound structures.
- In silico docking shows MGMG-generated molecules have comparable binding affinities to reference compounds, with preserved interactions and structural diversity.
Conclusions:
- MGMG offers a powerful, target-agnostic strategy for designing diverse, bioactivity-aware molecules.
- The approach effectively combines morphological and textual data for guided molecule generation.
- MGMG expands the scope of drug discovery to diseases with unknown targets.

