A curated collection of research papers on molecular and material design using generative AI and deep learning techniques.
Papers for Molecular Design using DL is a curated GitHub repository that collects and organizes academic papers on applying generative artificial intelligence and deep learning to molecular and material design. It serves as a structured knowledge base for researchers exploring AI-driven approaches in drug discovery, molecular conformation generation, and material science.
AI researchers, computational chemists, drug discovery scientists, and graduate students working at the intersection of machine learning and molecular design who need a comprehensive, organized reference of current literature.
It saves researchers significant time by providing a pre-organized, community-maintained collection of papers with logical categorization, eliminating the need to manually search and compile literature from disparate sources.
List of Molecular and Material design using Generative AI and Deep Learning
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Papers are organized into logical categories like molecular optimization and structure-based design, as detailed in the menu, enabling efficient navigation for targeted literature reviews.
Includes diverse AI methodologies such as transformers, VAEs, GANs, and diffusion models across both molecular and material design, providing a comprehensive overview of the field.
Encompasses applications in drug discovery and material science, with separate sections for each, allowing cross-disciplinary insights without needing multiple resources.
Regularly updated with new papers and linked to related awesome-lists, as indicated by the 'Updating ...' note and references section, ensuring ongoing relevance.
The list is presented as markdown files without built-in search or filtering tools, requiring manual browsing that can be inefficient for large-scale exploration.
Updates rely on community contributions, which may not keep pace with the rapid publication rate in AI-driven molecular design, potentially missing very recent preprints.
Papers are listed without annotations, reviews, or ratings, so users must independently evaluate the relevance and credibility of each entry.