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March 29, 2026Scientific Data1 citationsOpen Access

Multimodal and Hyperspectral Dataset for Segmentation of Bulky Waste using VIS, IR, NIR, and Terahertz Imaging

MBManuel BihlerLRLukas RomingDČDovilė Čibiraitė

Key Points

  • To provide a comprehensive dataset for segmentation and classification of bulky waste using multiple imaging modalities.
  • Annotated dataset created from four imaging modalities: VIS, NIR, IR, and THz.
  • Image registration aligns different modalities for enhanced accuracy.
  • Dataset includes 22,659 annotated patches for wood and non-wood classes.
  • Predefined splits for training, validation, and testing were established.
  • Baseline performance reported using convolutional neural networks.
  • Dataset contains 56 multi-sensor scenes for robust evaluations.
  • Binary discrimination task revealed effective segmentation of wood versus non-wood.
  • Challenges identified include occlusion and concealed contaminants, promoting advanced fusion techniques.

Abstract

Abstract This study presents an annotated multi-sensor, multimodal, and hyperspectral dataset designed to support deep learning-based classification and segmentation of bulky waste. The dataset comprises four distinct sensor modalities: high-resolution visible RGB images (VIS), hyperspectral near-infrared (NIR), temporally resolved thermal infrared (IR), and terahertz (THz) imaging with depth information, providing complementary multimodal information. An image registration process aligns all modalities to a common reference frame, enabling near pixel-precise fusion across sensors. WoodVIT contains 56 registered multi-sensor scenes, partitioned into 22,659 annotated patches with two main classes (wood and non-wood) and 16 subclass labels. It includes pixel-masks and patch-wise annotations to facilitate both segmentation and classification tasks. The primary benchmark task is binary discrimination of wood versus non-wood. The dataset also includes challenging scenarios involving occlusion and concealed contaminants (e.g., embedded metals) to motivate robust multimodal fusion approaches. We provide predefined train/validation/test splits and report baseline results using convolutional neural networks and fusion architectures to establish reference performance. WoodVIT is publicly available to support research on multi-sensor learning for waste sorting.

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Cite This Study

Bihler et al. (2026) studied this question.

synapsesocial.com/papers/69c8c2fcde0f0f753b39d8c4https://doi.org/10.1038/s41597-026-07053-1
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