CSPML

CSPML (Crystal Structure Prediction with Machine Learning) is a template-based crystal structure prediction method using metric learning for element substitution. It predicts stable structures by selecting templates from known crystal st…

7. STRUCTURE PREDICTION 7.4 ML-Accelerated Structure Prediction VERIFIED
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Overview

CSPML (Crystal Structure Prediction with Machine Learning) is a template-based crystal structure prediction method using metric learning for element substitution. It predicts stable structures by selecting templates from known crystal structures.

Reference Papers

Reference papers are not yet linked for this code.

Full Documentation

Overview

CSPML (Crystal Structure Prediction with Machine Learning) is a template-based crystal structure prediction method using metric learning for element substitution. It predicts stable structures by selecting templates from known crystal structures.

Theoretical Basis

  • Template-based structure prediction
  • Metric learning for element substitution
  • Crystal structure similarity
  • Formation energy prediction
  • Template selection optimization

Key Capabilities

  • Element substitution-based CSP
  • Metric learning for template selection
  • No ab initio calculations needed
  • Fast structure prediction
  • Wide chemical space coverage

Sources: Comp. Mater. Sci. 211, 111496 (2022)

Key Strengths

Speed:

  • No DFT required
  • Fast prediction
  • Large-scale screening

Methodology:

  • Metric learning
  • Template selection
  • Element substitution

Coverage:

  • Wide chemical space
  • Multiple crystal systems
  • General applicability

Inputs & Outputs

  • Input formats: Chemical composition
  • Output data types: Predicted structures, template matches

Interfaces & Ecosystem

  • Python: TensorFlow-based
  • Databases: Template database
  • Validation: DFT codes

Workflow and Usage

  1. Input chemical composition
  2. Run metric learning model
  3. Select best templates
  4. Generate substituted structures
  5. Validate with DFT (optional)

Performance Characteristics

  • Very fast prediction
  • 50-65% accuracy on crystal systems
  • Scales to large datasets

Computational Cost

  • Minimal (ML inference)
  • No DFT required
  • Fast screening

Best Practices

  • Use diverse template database
  • Validate top predictions
  • Consider multiple templates
  • Check structural validity

Limitations & Known Constraints

  • Template-dependent
  • May miss novel structures
  • Accuracy varies by system

Application Areas

  • High-throughput screening
  • Initial structure guessing
  • Materials discovery
  • Database expansion

Comparison with Other Codes

  • vs TCSP: Similar approach, different ML
  • vs USPEX: CSPML faster, less accurate
  • Unique strength: Fast template-based prediction, no DFT

Community and Support

  • Open-source (GitHub)
  • Published methodology
  • Code available

Verification & Sources

Primary sources:

  1. GitHub: https://github.com/Minoru938/CSPML
  2. Publication: Comp. Mater. Sci. 211, 111496 (2022)

Confidence: VERIFIED

Verification status: ✅ VERIFIED

  • Website: ACTIVE (GitHub)
  • Source: OPEN
  • Development: MAINTAINED
  • Applications: Fast CSP, template-based prediction

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