Published November 16, 2025
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A Paradigm Shift in Molecular Interaction Analysis: The CL5D Deterministic Binding Model
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This white paper introduces the CL5D deterministic binding model, a paradigm shift from traditional stochastic molecular docking methods. The CL5D framework employs a quantum-inspired, multi-dimensional coherence scoring system to deliver mathematically certain binding predictions with integrated clinical validation. Through a case study involving Lupcol and cancer targets (TP53, PTEN, CTNNB1), we demonstrate a confidence level of 92-96%, immediate results, and elimination of pose selection ambiguity—reducing drug discovery timelines by 6-12 months per target.
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2025-11-16This white paper introduces the CL5D deterministic binding model, representing a fundamental paradigm shift from traditional stochastic molecular docking methods in computational drug discovery. The CL5D framework employs a quantum-inspired, multi-dimensional coherence scoring system that replaces probabilistic guesswork with mathematical certainty. By delivering exact binding region identification (CN scoring) and integrating real-world clinical data from FDA pathways and ClinPGx, the model achieves a 92-96% confidence level—significantly surpassing the 60-70% confidence of legacy methods. Through a detailed case study of Lupcol binding to cancer targets (TP53, PTEN, CTNNB1), we demonstrate: Elimination of pose selection ambiguity ("20 Pose Lottery") Immediate, validated results versus 3-6 months of traditional analysis 4000% improvement in clarity through deterministic region identification Built-in clinical relevance and pathway-level validation The CL5D model accelerates drug discovery by 6-12 months per target and projects a reduction in clinical failure rates from 90% to 25%, establishing a new science of deterministic identification in molecular interaction analysis. Date: 2025-11-16 Type: Copyrighted Copyright: © 2025 Mrinmoy Chakraborty and Devise Foundation. All rights reserved.