Skip to content
Open access

ToxiVerse: chemical bioprofiling, toxicity data sharing and customizable predictive modeling

Aug 2026 · Bioinformatics · Vol 42 · 0 citations · 58 references
Medicine

TL;DR

ToxiVerse provides automatic chemical bioprofiling, curated toxicity datasets, and a predictive modeling interface designed for researchers who lack programming expertise to address the urgent need for user-friendly machine learning tools in computational toxicology.

Abstract

Abstract Motivation Chemical toxicity assessment is critical for drug development and environmental safety. Computational models have emerged as a promising alternative to animal testing and now play a significant role in efficiently evaluating new chemicals. To address the urgent need for user-friendly machine learning tools in computational toxicology, we developed ToxiVerse, a public web-based platform. Results ToxiVerse provides automatic chemical bioprofiling, curated toxicity datasets, and a predictive modeling interface designed for researchers who lack programming expertise. The platform comprises three integrated modules: (i) Bioprofiler, which provides chemical descriptors by combining chemical-bioactivity data from PubChem assays with a machine learning-based data gap-filling procedure; (ii) Database, which hosts ∼50 000 curated chemicals covering diverse toxicity endpoints; and (iii) Cheminformatics, which enables dataset upload, chemical curation, and automatic generation of quantitative structure–activity relationship models for toxicity prediction. Availability The tool is accessible at www.toxiverse.com, and source code is available at https://github.com/zhu-research-group/toxiverse.

Read PDF

Similar papers

Sep 2026

ToxCompl Completion of the DrugMatrix Toxicogenomics Database: An Integrated Resource for Toxicological Hypothesis Generation.

The DrugMatrix database contains systematically generated toxicogenomics data from short-term in vivo studies for over 600 chemicals. However, most potential endpoints are missing due to a lack of experimental measurements. Therefore, we leveraged matrix factorization and machine learning methods to predict the missing...

Laura J. Word, Guojing Cong, Robert M. Patton et al. · 0 citations
Jul 2026

Toxicological Knowledge-Guided Graph Learning for Interpretable and Generalizable Molecular Toxicity Prediction.

Early identification of toxic liabilities is essential for improving drug safety and reducing attrition. However, structure-based deep learning models often generalize poorly to new chemical scaffolds and provide limited biological mechanistic insight. To address this, we introduce Toxicological Knowledge-guided Graph-...

Yanjing Duan, Woruo Chen, Kun Li et al. · 0 citations
#explainable ai Open access Sep 2026

From QSAR to deep learning: an interpretable comprehensive pipeline with a read-across approach for mutagenicity prediction via the Enalos Cloud Platform

In silico NAMs, including computational approaches, can contribute to the development of novel Safe and Sustainable by Design chemicals and substances by identifying potentially hazardous ones at an early stage by identifying potentially hazardous ones at an early stage.

Dimitra-Danai Varsou, A. Tsoumanis, E. Longhin et al. · 0 citations
Open access 2026

EXPLAINABLE MACHINE LEARNING FOR PREDICTING MOLECULAR TOXICITY FROM PHYSICOCHEMICAL AND STRUCTURAL PROPERTIES

The prediction of molecular toxicity is becoming more and more critical for effective chemical safety assessment, drug development and environmental risk assessment. In this study, an explainable machine learning model for predicting molecular toxicity was developed using physicochemical descriptors and structural prop...

S. Kulkarni · 0 citations
Aug 2026

Toxicity-guided assessment of disinfection by-products via machine learning and network toxicology.

A toxicity-guided and interpretable framework integrating molecular modeling, machine learning, network toxicology, and experimental characterization is developed to systematically predict and prioritize potentially high-risk disinfection by-products, supporting evidence-based water quality management.

Jie Wang, Zhu-Jun Liu, Ruipeng Lai et al. · 0 citations
Review Jul 2026

Advances in Artificial Intelligence and Machine Learning for Toxicity Prediction in Computational Toxicology: A Comprehensive Review.

Over the past three decades, artificial intelligence (AI) and machine learning (ML) have revolutionized computational toxicology, providing powerful tools for predicting chemical toxicity and supporting safer assessments for human health and the environment. This review offers a critical 30-year synthesis (1995-2025) t...

G. Shija · 0 citations

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