Skip to content
Preprint

ChemHyperMag: Physics-informed magnetic hypergraph learning improves molecular ADMET prediction

Jul 2026 · 0 citations · 69 references
Computer Science

TL;DR

This work proposes ChemHyperMag, a functional group hypergraph that builds a functional group hypergraph from rings, BRICS fragments, Bemis-Murcko scaffolds, and bonds, and defines a potential driven nonreversible flow guided by electronegativity and Gasteiger partial charges.

Abstract

Accurate prediction of ADMET (Absorption, Distribution, Metabolism, Excretion, and Toxicity) is important for drug discovery. Most predictors use undirected molecular graphs and pairwise edges. This choice misses asymmetric interactions, nonreversible dynamics, and motif level effects from functional groups and ring systems. We propose ChemHyperMag for multitask ADMET prediction under missing labels. ChemHyperMag builds a functional group hypergraph from rings, BRICS fragments, Bemis-Murcko scaffolds, and bonds. It also defines a potential driven nonreversible flow guided by electronegativity and Gasteiger partial charges. The resulting circulation is encoded by a Hermitian magnetic Laplacian and processed with a magnetic Chebyshev encoder. We perturb magnetic phases to form stochastic views and train with an InfoNCE objective. Experiments on multiple ADMET benchmarks show improvements over recent methods with fewer labeled samples and no conformers. ChemHyperMag is scalable and provides interpretable directional signals through its magnetic phases.

View source

Similar papers

Open access Jul 2026

Path-weighted atom vectors and ChemBERTa fusion for predicting physicochemical properties

Experiments show that PWAV generally improves over classical fingerprint descriptors within learned models and achieves competitive performance relative to established external baselines on several endpoints, positioning PWAV as a competitive and chemically transparent component for hybrid molecular property prediction...

M. Afzal, S. Siddiqi · 0 citations
Open access Aug 2026

A multimodal representation learning platform for accurate molecular ADMET prediction

Trimole-Hybrid is presented, a task-wise multimodal framework that addresses ADMET heterogeneity by selecting or combining predictors built from complementary molecular representations, and shows sensitivity to changes in essential functional motifs, suggesting its ability to capture ADMET-relevant molecular substructu...

Zhen-Sheng Luo, Dawei Huang, Yanruisheng Shao et al. · 1 citation
Open access Aug 2026

Resolving Chemically Inequivalent 11B NMR Sites via Interpretable Hybrid Machine Learning

A manually verified, solvent-annotated 11B NMR data set constructed via a large language model (LLM)-assisted workflow provides a form of virtual spectral resolution, enabling the discrimination of chemically inequivalent boron sites that are difficult to resolve experimentally.

Peng-Hui Li, Ben Gao, Shi-Yang Wang et al. · 0 citations
Jul 2026

MEGA-CL: A Molecular Foundation Model for Generalizable ADMET Prediction through Graph External Attention and Contrastive Learning

The potential of MEGA-CL as a generalizable framework for accelerating in silico ADMET evaluation and early-stage drug candidate optimization is demonstrated, with robust performance on challenging regression tasks, including clearance (CL) and steady-state volume of distribution (VDss).

Ting-Hui Jin, Ke-Du Jin, Ying Li et al. · 0 citations
Aug 2026

HyperMolFusion: A Hypergraph-Enhanced Multi-Modal Fusion Framework for Accurate Molecular Property Prediction.

By holistically integrating atomic, motif, and global fingerprint information via hypergraph modeling, HyperMolFusion offers a more reliable computational tool to enhance the efficiency and accuracy of drug development pipelines.

Yawen Lin, Sheng Lian, Shaoxin Bian et al. · 1 citation
Preprint Aug 2026

RAVEN: Frozen Random Graph Reservoirs with Physics-Informed Interaction Fingerprints for Protein-Ligand Binding Affinity Prediction

The results indicate that frozen multi-view graph representations, explicit physicochemical statistics, and heterogeneous model fusion provide a robust and flexible framework for protein-ligand binding-affinity prediction.

Qingyan Zou, Jia-Yi Huang, Hangbo Xie et al. · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.