ACL Digital

Home / CaseStudy / ACL Digital Life Sciences Used AI and Network Graphs to Modernize Molecular Discovery in Pharma R&D

ACL Digital Life Sciences Used AI and Network Graphs to Modernize Molecular Discovery in Pharma R&D

ACL Digital Life Sciences Used AI and Network Graphs to Modernize Molecular Discovery in Pharma R&D

ACL Digital Life Sciences Used AI and Network Graphs Banner

Overview

A global pharmaceutical innovator focused on developing therapies for diabetes, oncology, immunology, and neuroscience aimed to shorten the drug discovery timeline, which traditionally spans 14 to 15 years. The company sought advanced AI solutions to enhance molecule identification and improve research outcomes at the earliest stages of development.

The client partnered with ACL Digital Life Sciences to design and implement an AI-driven framework using graph-based molecular network topology. The initiative aimed to transform the way researchers identify key molecules, analyze interactions and accelerate the path to clinical readiness

Download Case Study








    Challenges

    The client faced multiple R&D bottlenecks tied to the complexity of molecular networks, including:

    Difficulty identifying important molecules within dense and interrelated molecular structures

    Limited visibility into molecule-to- molecule relationships, particularly:
    • One-to-one relationships
    • Importance and centrality of specific molecules (nodes)
    • Exploration of substitutable child-node molecules rather than fixed parent compounds

    Inefficient researcher workflows due to the lack of interactive, intuitive data visualization tools/app for molecular analysis

    Solution

    ACL Digital Life Sciences delivered a comprehensive, AI-powered solution built on graph neural networks and advanced similarity scoring, enabling more profound insights and rapid molecular analysis. Key components of the solution:
    • Data Integration: The team began with a foundational dataset of molecule listings and known interactions, mapping these into a graph-based structure.
    • Graph-Based Molecular Network Analysis:
      • Nodes represent molecules; edges represent their interactions.
      • Molecules with the highest number of edges (interactions) were flagged as critical for the drug’s functionality
    • Parent Nodes: Represent molecules that are indispensable to the drug’s formulation and cannot be replaced (e.g., chlorophyll chloride).
    • Child Nodes: Represent molecules that can potentially be substituted based on their interactions and roles in the network.
    • Intuitive Front-End UI for Researchers: ACL Digital developed a dynamic, web-based interface allowing scientists to:
      • Click on any molecule to access complete interaction profiles.
      • Check molecule interactions to determine test history and dependency data.
      • Assess substitute molecule candidates based on the data represented on the graphs.

    Outcomes

    Our implemented solution yielded immediate and measurable benefits for the client:

    ACL Digital Life Sciences Used AI and Network Graphs outcome
    Scroll to Top