🤖 AI Summary
This work addresses the challenge of robust system-level fault detection for industrial single-speed chain conveyors under diverse operating conditions and realistic noise environments. To this end, we present a real-world-oriented multimodal fault dataset that simultaneously captures multichannel audio and vibration signals across normal operation and four representative fault types. Data were recorded under varying conveyor speeds, load levels, and factory-replicated ambient noise conditions. The dataset supports channel-wise analysis, multimodal fusion, unsupervised anomaly detection, and supervised classification. It also provides standardized data splits and a unified channel-level kNN baseline, establishing a reliable and extensible benchmark platform for evaluating the generalization capabilities of fault detection algorithms.
📝 Abstract
We introduce a multimodal industrial fault analysis dataset collected from a single-speed chain conveyor (SSCC) system, targeting system-level fault detection in production lines. The dataset consists of multimodal signals, including three audio and four vibration channels. It covers normal operation and four representative fault types under multiple speeds, loads, and both clean and realistic factory-noise conditions reproduced on-site. It is explicitly designed to support channel-wise analysis and multimodal fusion research. We establish standardized evaluation protocols for unsupervised fault detection with normal-only training and supervised fault classification with balanced dataset splits across different operating conditions and fault types. A unified channel-wise kNN baseline is provided to enable fair comparison of representation quality without task-specific training. The dataset offers a practical and extensible benchmark for robust multimodal industrial fault analysis.