arpespythontools

**arpespythontools** is a Python library for exploring, analyzing, and visualizing ARPES (Angle-Resolved Photoemission Spectroscopy) data. It provides tools for loading experimental ARPES data, momentum conversion, Fermi level alignment,…

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Overview

**arpespythontools** is a Python library for exploring, analyzing, and visualizing ARPES (Angle-Resolved Photoemission Spectroscopy) data. It provides tools for loading experimental ARPES data, momentum conversion, Fermi level alignment, band mapping, and curvature analysis.

Reference Papers

Reference papers are not yet linked for this code.

Full Documentation

Official Resources

  • Source Repository: https://github.com/pranabdas/arpespythontools
  • Documentation: https://pranabdas.github.io/arpespythontools/
  • License: Open source

Overview

arpespythontools is a Python library for exploring, analyzing, and visualizing ARPES (Angle-Resolved Photoemission Spectroscopy) data. It provides tools for loading experimental ARPES data, momentum conversion, Fermi level alignment, band mapping, and curvature analysis.

Scientific domain: ARPES data analysis, momentum conversion, band mapping
Target user community: Researchers analyzing experimental ARPES data and comparing with DFT band structures

Theoretical Methods

  • ARPES data loading and processing
  • Momentum (k) conversion from angle
  • Fermi level alignment
  • Band mapping and tracking
  • Second derivative / curvature analysis
  • Background subtraction

Capabilities (CRITICAL)

  • Load SES ARPES spectra
  • Momentum (k) conversion
  • Fermi level alignment
  • Band mapping
  • Curvature/second derivative analysis
  • Background subtraction
  • Multiple file format support

Sources: GitHub repository, documentation site

Key Strengths

Experimental ARPES:

  • Direct experimental data loading
  • Standard ARPES workflows
  • Momentum conversion built-in
  • Fermi level handling

Analysis Tools:

  • Band mapping and tracking
  • Curvature analysis for band identification
  • Background subtraction
  • Normalization

Lightweight:

  • Minimal dependencies
  • NumPy/Matplotlib based
  • Easy to install
  • Simple API

Inputs & Outputs

  • Input formats:

    • SES spectra files
    • ARPES data files
    • Energy/Angle grids
  • Output data types:

    • k-converted spectra
    • Band maps
    • Curvature plots
    • Aligned data

Interfaces & Ecosystem

  • NumPy: Numerical computation
  • Matplotlib: Visualization
  • Python: Core language

Performance Characteristics

  • Speed: Fast (data processing)
  • Accuracy: Experimental resolution
  • System size: Typical ARPES datasets
  • Memory: Moderate

Computational Cost

  • Analysis: Seconds to minutes
  • No DFT needed: Experimental data
  • Typical: Efficient

Limitations & Known Constraints

  • Experimental data only: Not for DFT simulation
  • SES format focus: Limited other formats
  • No DFT comparison built-in: Manual comparison
  • Documentation: Could be more extensive

Comparison with Other Codes

  • vs PyARPES: arpespythontools is simpler, PyARPES is comprehensive framework
  • vs peaks: arpespythontools is lightweight, peaks is modern framework
  • vs mpes: arpespythontools is general ARPES, mpes is multidimensional
  • Unique strength: Lightweight ARPES data analysis with momentum conversion and curvature analysis

Application Areas

ARPES Experiments:

  • Data loading and processing
  • Momentum conversion
  • Band identification
  • Fermi surface mapping

Band Structure Comparison:

  • Experimental vs DFT comparison
  • Band tracking
  • Fermi level alignment
  • Spectral weight analysis

Surface Science:

  • Surface state identification
  • Bulk band mapping
  • Fermi surface topology
  • Spectral function analysis

Best Practices

Data Loading:

  • Use appropriate file format
  • Check energy/angle calibration
  • Verify Fermi level
  • Apply momentum conversion correctly

Analysis:

  • Use curvature for band identification
  • Apply background subtraction
  • Normalize appropriately
  • Compare with DFT for validation

Community and Support

  • Open source on GitHub
  • Documentation website available
  • Research code
  • Active development

Verification & Sources

Primary sources:

  1. GitHub: https://github.com/pranabdas/arpespythontools
  2. Documentation: https://pranabdas.github.io/arpespythontools/

Confidence: VERIFIED

Verification status: ✅ VERIFIED

  • Source code: ACCESSIBLE (GitHub)
  • Documentation: ACCESSIBLE (website)
  • Specialized strength: Lightweight ARPES data analysis with momentum conversion and curvature analysis

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