Scientific Paper
A Framework to Evaluate Machine Learning Crystal Stability Predictions
Riebesell et al. · 2025-05-09
What it covers
Matbench Discovery is a benchmarking framework for machine learning models used in materials discovery, highlighting the importance of task-specific metrics and demonstrating that universal interatomic potentials can effectively pre-screen stable inorganic materials in high-throughput workflows.
Who it helps
Intended audience has not been documented.
Limitations
Source-specific limitations have not been reviewed. Inclusion and topic labels do not establish effectiveness or reliability.
Show citation
Riebesell et al.. 2025-05-09. A Framework to Evaluate Machine Learning Crystal Stability Predictions. https://www.nature.com/articles/s42256-025-01055-1.epdf?sharing_token=N5dTEbyOD6QKy6FqnDBy0dRgN0jAjWel9jnR3ZoTv0PaSYjLgi7y4a9LlN5TLXDR9GV8xb903gJNOmMcvEA1s-IflC0MqzHFlYb05uaO2ZVcxc-CBkK1a1bKsjpAEOJUM6we7W9XYousvJRsLsk_y_9a-ZvEp4bgGlLEXvRvw-Q%3D (AI & Environment Resource Hub; record paper-325; collection snapshot 2026-10-04).
Classification and context
Included in the original Scientific Paper collection. Labels below are metadata based suggestions. They are not verified findings, claims of effectiveness, or endorsements.
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Available source metadata
- Author or creator
- Riebesell et al.
- Publisher
- Nature
- Publication date
- 2025-05-09
- Date precision
- day
- Geographic scope
- Unknown
- Language
- unknown
- Peer review
- unknown
- Source access
- Reachable at last check
- Metadata confidence
- Metadata unconfirmed
- Last verified
- Not yet verified
- Snapshot import
- 2026-09-06
- Legacy domain
- Materials, Waste & Circular Economy
- Legacy subdomain
- Machine Learning Benchmarking for Thermodynamic Stability in Materials Discovery
- journal
- Nature
Provenance and review
- Source access
- Reachable at last check
- Metadata confidence
- Metadata unconfirmed
- Editorial relevance
- Relevance has not been separately reviewed.
- Evidence quality
- Evidence quality has not been separately assessed.
Source sheet: Scientific Paper · Row 329 · Original ID: paper-325.
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A paper listing is not a quality assessment. Peer review and findings require source-level confirmation. Source link reachable · checked 2026-09-28. Metadata not yet corroborated. The import date is not the original date added.
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Related through shared environmental topics
Ordered by the number of shared provisional topic labels. This indicates a browsing connection, not agreement between sources.
Shared topics: Materials and critical minerals; E-waste and circularity
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Source: OrganizationExcluded from automated checks · Metadata unconfirmed
Shared topics: Materials and critical minerals; E-waste and circularity
Organization · North America
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Source: OrganizationExcluded from automated checks · Required metadata corroborated
Shared topics: Materials and critical minerals; E-waste and circularity
Organization · North America
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Source: OrganizationExcluded from automated checks · Required metadata corroborated
Shared topics: Materials and critical minerals; E-waste and circularity
Tool
This dataset provides a large and diverse collection of DFT calculation trajectories for heterogeneous catalysis research. It encompasses a wide range of adsorbates and catalyst surfaces. The data is designed for training and testing machine learning interatomic potentials. AQCat25 consists of approximately 5K materials, 40K intermediate-catalyst systems, and 11.1M frames.
Source: ToolReachable at last check · Required metadata corroborated