Aug 2026· ACS Environmental Au· 0 citations· 73 references
TL;DR
This tutorial provides a comprehensive, end-to-end workflow from raw data to deployed models,icitly designed for environmental chemists with limited prior experience in ML modeling while also providing practical guidance for other users seeking to strengthen their modeling workflows.
Abstract
Machine learning (ML) holds immense promise for predictive modeling but is often misapplied without a systematic understanding of the full model development pipeline. This tutorial provides a comprehensive, end-to-end workflow─from raw data to deployed models─explicitly designed for environmental chemists with limited prior experience in ML modeling while also providing practical guidance for other users seeking to strengthen their modeling workflows. Using a public high-performance liquid chromatography small molecule retention time (SMRT) data set containing over 80,000 small molecules, this tutorial demonstrates critical stages: data cleaning via chemical similarity and scaffold analysis, application-oriented data splitting, feature engineering with molecular fingerprints and graphs, model development using commonly used LightGBM and Graph Convolutional Network (GCN), and model interpretation with different methods. This work highlights how domain knowledge guides each step to avoid common pitfalls, such as overestimating model performance through inappropriate data splits. The work concludes with a robust deployment framework that ensures models are both accurate and accessible. All code is openly available, providing an example implementation for users to reference when developing ML models across diverse applications.
This study presents a data-driven machine learning approach to predict the melting points of organic compounds, leveraging both 2D and 3D molecular descriptors and indicates that ML models can significantly improve melting-point predictions, providing a robust tool for the scientific community.
Md Kamruzzaman, Alexander Landera, N. Menon et al.· Journal of Cheminformatics· 1 citation
The VizFold plugin is described, a modular framework that can be extended toward end-to-end composable pipelines and demonstrated feasibility through standardized hook-based tracing for ESMFold and Boltz-2, archive validation, and reproducible deployment on an HPC cluster using managed caches, modules, quotas, and Slur...
Jayanth Vennamreddy, Arish Virani, Kevin Yin et al.· Practice and Experience in A...· 0 citations
Monroe is presented, a new MFM with several innovations over the existing state of the art: increased scale allowing pre-training on over 81 million molecules from the PM6 quantum chemistry dataset; improved graph representation of stereochemistry; improved training losses including conformer denoising and embedding de...
Błażej Banaszewski, Andrew W. Fitzgibbon· 1 citation
A dedicated Python-based computational package designed for the systematic development, training, and evaluation of ML models with an explicit consideration of interspecies data integration in ADMET modeling, offering quantitative guidance on when and how cross-species and cross-assay data improve predictive performanc...
Hubert Rybka, Konrad Masztalerz, Sabina Podlewska· Chemical Research in Toxicol...· 0 citations
It is demonstrated that both dataset quality and data quantity contribute to model performance and, notably, that retaining molecules with incomplete stereochemical information can outperform their removal when the resulting gain in data quantity offsets the quality penalty.
Deep-Interact Studio is, to the authors' knowledge, the only such platform to combine fine-grained per-layer model customization with multi-model comparison and interpretability, offering a flexible and transparent alternative to fixed, single-purpose tools.
Dipayan Sarkar, K. Bardhan, Chiranjib Sarkar· bioRxiv· 0 citations
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