Poster Session 1.F - Pharmaceutical Sciences and Health Technologies
Angi, Réka, PhD
QO02BR
Semmelweis University, Department of Pharmaceutical Chemistry
06707708485
angi.erzsebet@semmelweis.hu
A High-Throughput Platform for Solubility Classification to Support Early Drug Development
Réka Angi1, Anna Vincze1, Orsolya Basa-Dénes1, Arash Mirzahosseini1, Laura Szabadi2, Dávis Havasi3, György Tibor Balogh1
1: Semmelweis University, Department of Pharmaceutical Chemistry
2: Budapest University of Technology and Economics
3: mcule.com Kft.
Poszter
Poster Session 1.F - Pharmaceutical Sciences and Health Technologies
English
Pharmaceutical Sciences and Health Technologies
Solubility is a critical operational parameter in modern automated synthesis and reaction design, and a key determinant of developability in pharmaceutical sciences; however, routine determination remains a bottleneck, as the classical “shake-flask” method is time- and resource-intensive. Here, we present a rapid, high-throughput (HTS) workflow for compound solubility classification across multiple solvents (methanol, acetonitrile, DMSO, dioxane, DMF, and water), focusing on practical solubility categories rather than exact thermodynamic values.
The method is implemented on a chemical-resistant, optically clear 96-well plate platform compatible with standard plate readers and requiring only 20–30 mg of material. Compounds are tested at predefined loading levels corresponding to nominal concentrations (10–200 mg·mL⁻¹). Solubility classification is achieved by combining two complementary optical readouts: nephelometry to detect turbidity and image analysis to identify residual solid material. The resulting signals are normalized and integrated into a quasi-quantitative scoring system, enabling assignment into discrete solubility categories.
To ensure robustness, blank plate analysis was applied for well-specific correction, and model performance was evaluated using cross-validation. Final compound-level classification was derived by mapping concentration-dependent responses onto physically consistent dissolution patterns. The method was further validated against miniaturized thermodynamic solubility measurements.
Overall, the developed workflow provides a fast, material-efficient, and automation-compatible platform for early-stage solubility screening and compound prioritization in drug discovery and synthetic chemistry.
Semmelweis University
György Tibor Balogh
I do not give consent to the publication of my abstract on the website of the congress.
after finishing doctoral studies with absolutorium (PhD)
Szabad
elfogadva
poszter
nem rendelkezett róla
9706
17:30
17:33