aiqbench analysis
This research introduces the Universal Multi-Modal Traceformer (UMT), a Transformer-based framework designed to enhance next-event prediction in process logs by integrating heterogeneous contextual data such as numerical, categorical, and textual features. By employing a universal feature encoder and dynamic weighting mechanisms, the model effectively addresses the limitations of existing temporal point process approaches that often ignore rich metadata. Experimental results across 13 real-world datasets demonstrate improved accuracy in predicting both event activities and inter-arrival times, offering a robust method for modeling complex industrial workflows.
Universal Multi-Modal Traceformer: Integrating Heterogeneous Context for Process Event Prediction
arXiv:2609.24579v1 Announce Type: new Abstract: Event logs arise in a wide range of real-world processes, capturing not only event activities and timestamps but also multi-modal contextual information. Existing event-sequence models, including many temporal point process approaches, primarily model event activities and timestamps while overlooking heterogeneous context, such as numerical measurements, categorical attributes, textual descriptions, and metadata associated with individual events and entire traces. In this paper, we propose Universal Multi-Modal Traceformer (UMT), a unified framework for incorporating heterogeneous process context into next-event prediction. Built on a Transformer backbone, UMT introduces a universal feature encoder that maps diverse feature types into a shared representation space and handles contextual information at both the event and trace levels. UMT further develops a per-event Perceiver module that dynamically weights contextual features and adaptively integrates them into event-token representations. To accommodate the heavy-tailed and potentially multi-modal distribution of inter-arrival times, UMT represents each interval at multiple temporal scales and jointly predicts the corresponding scale-specific quantities. Experiments on 13 real-world event logs show that UMT improves both next-event activity and time prediction over existing approaches.
Abstract:Event logs arise in a wide range of real-world processes, capturing not only event activities and timestamps but also multi-modal contextual information. Existing event-sequence models, including many temporal point process approaches, primarily model event activities and timestamps while overlooking heterogeneous context, such as numerical measurements, categorical attributes, textual descriptions, and metadata associated with individual events and entire traces. In this paper, we propose Universal Multi-Modal Traceformer (UMT), a unified framework for incorporating heterogeneous process context into next-event prediction. Built on a Transformer backbone, UMT introduces a universal feature encoder that maps diverse feature types into a shared representation space and handles contextual information at both the event and trace levels. UMT further develops a per-event Perceiver module that dynamically weights contextual features and adaptively integrates them into event-token representations. To accommodate the heavy-tailed and potentially multi-modal distribution of inter-arrival times, UMT represents each interval at multiple temporal scales and jointly predicts the corresponding scale-specific quantities. Experiments on 13 real-world event logs show that UMT improves both next-event activity and time prediction over existing approaches.
Machine Learning (cs.LG)
arXiv:2609.24579 [cs.LG]
(or arXiv:2609.24579v1 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2609.24579 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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