Research & Papers

Explainable multimodal AI framework adaptively calibrates archaeological sensing workflows

Detects reconstruction artifacts, spectral distortions, and detector instability across 4 sensing modes

Deep Dive

Archaeological digitisation increasingly relies on multiple sensing modalities—photogrammetric 3D reconstruction, hyperspectral imaging, X-ray fluorescence (XRF), and Raman spectroscopy—but each is prone to acquisition-specific errors that degrade downstream analysis. This new framework from an international team led by Nevio Dubbini adds an algorithmic supervision layer that assesses whether acquisitions are statistically consistent, physically plausible, and suitable for integration. Rather than replacing instrument-level calibration, it represents each modality as structured feature spaces encoding geometric, spectral, spatial, and statistical properties, then applies supervised and unsupervised learning combined with explainable AI (XAI) to flag problems.

Tests on real archaeological datasets show the framework reliably catches meaningful acquisition variability, enabling robust quality assessment across heterogeneous sensors. The work is published on arXiv (2608.00074), with links to code, data, and experiment replication tools—making it easy for other teams to adopt.

Key Points
  • Operates across four sensing modalities: photogrammetry, hyperspectral imaging, XRF, and Raman spectroscopy
  • Combines supervised/unsupervised learning with XAI to identify degradation patterns like detector instability and low signal-to-noise
  • Enables adaptive feedback and resource-aware acquisition strategies, reducing wasted scans and improving dataset quality

Why It Matters

Automates quality assurance for digital archaeology, reducing wasted scans and improving reliability of 3D and spectral datasets.

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