Peptides play essential roles in various biological processes, including serving as building blocks for proteins, hormones, and enzymes. They regulate cellular functions, act as signaling molecules, and have antimicrobial, antioxidant, and immunomodulatory properties. Peptides are involved in wound healing, blood pressure regulation, and the innate immune response. Their diverse functions make them valuable for therapeutic applications and biomedical research.
Knowing peptides' conformations is crucial for research because their function depends on their shape. Understanding how a peptide folds allows researchers to design new ones with specific therapeutic applications or helps them deduce the processes by which natural peptides work at the molecular level, leading to advancements in various fields. Accurately predicting peptide conformations is essential for drug development and studying biological processes involving peptides.
PepFlow predicts peptide conformations by leveraging a diffusion framework and integrating a hypernetwork to predict sequence-specific network parameters. This approach enables direct all-atom sampling from the allowable conformational space of peptides5. PepFlow combines machine learning with physics-based modeling to capture the dynamic energy landscape of peptides, allowing it to generate diverse peptide conformations efficiently.