New Framework for Continual Fine-Tuning of Foundation Models in Process Monitoring

Sjoerd van Straten, Marwan Hassani· August 31, 2026 View original

Key takeaways

  • Concept drift significantly impacts predictive process monitoring model performance.
  • Foundation models can address the cold-start problem in continual learning for PPM.
  • COMPASS offers an effective framework for online continual fine-tuning of FMs.
  • The method shows strong performance, especially in recurrent and complex drift scenarios.

Who benefits

ManufacturingLogisticsHealthcareFinanceIT Operations

Summary

Researchers introduce COMPASS, a novel framework for online continual fine-tuning of foundation models for predictive process monitoring, addressing concept drift in dynamic environments. It uses loss-plateau drift detection and maintains a unified knowledge subspace, outperforming existing methods.

Predictive Process Monitoring (PPM) models often struggle in real-world scenarios where underlying processes change over time, a phenomenon known as concept drift. While online continual learning methods exist, they typically train new models from scratch, leading to a "cold-start" problem. Foundation Models (FMs) offer a promising solution due to their pre-trained knowledge, but their application in continual fine-tuning for process mining has been largely unexplored. A new framework, COMPASS (Continual Online foundation Model-based PPM with Adaptive SubSpaces), has been developed to tackle this. COMPASS is designed for online continual fine-tuning of FMs in PPM. It incorporates an adaptive loss-plateau drift detection mechanism to automatically identify when process changes occur in event streams. The framework also maintains a unified knowledge subspace, integrating both pre-trained FM knowledge and task-specific adaptations. Evaluations across various synthetic and real-world concept drift scenarios, using different model backbones, show that COMPASS significantly outperforms three state-of-the-art non-FM competitors and two baseline update strategies. Its performance is particularly strong in cases with recurrent drift and complex, long-running processes, all while maintaining acceptable computational overhead.

Why it matters

Professionals dealing with dynamic data environments can leverage this research to build more robust and adaptive predictive process monitoring systems, reducing the need for frequent manual model retraining and improving accuracy over time.

How to implement this in your domain

  1. 1Investigate integrating foundation models into existing process monitoring pipelines.
  2. 2Explore adaptive drift detection mechanisms to automatically trigger model updates.
  3. 3Evaluate the computational overhead of continual fine-tuning against current retraining strategies.
  4. 4Pilot COMPASS-like approaches on specific business processes prone to concept drift.
  5. 5Develop strategies for managing and updating unified knowledge subspaces for FMs.

Original post by Sjoerd van Straten, Marwan Hassani

"arXiv:2608.28237v1 Announce Type: new Abstract: Predictive Process Monitoring (PPM) models are increasingly deployed in dynamic environments where concept drift causes the underlying process distribution to shift over time. While recent work has moved toward online continual lear…"

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