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Enhancing Stochastic Petri Net-based Remaining Time Prediction using k-Nearest Neighbors

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arxiv 2206.13109 v1 pith:O277S5OC submitted 2022-06-27 cs.LG

Enhancing Stochastic Petri Net-based Remaining Time Prediction using k-Nearest Neighbors

classification cs.LG
keywords timepredictionremainingdeliveryk-nearestneighborspetristochastic
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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Reliable remaining time prediction of ongoing business processes is a highly relevant topic. One example is order delivery, a key competitive factor in e.g. retailing as it is a main driver of customer satisfaction. For realising timely delivery, an accurate prediction of the remaining time of the delivery process is crucial. Within the field of process mining, a wide variety of remaining time prediction techniques have already been proposed. In this work, we extend remaining time prediction based on stochastic Petri nets with generally distributed transitions with k-nearest neighbors. The k-nearest neighbors algorithm is performed on simple vectors storing the time passed to complete previous activities. By only taking a subset of instances, a more representative and stable stochastic Petri Net is obtained, leading to more accurate time predictions. We discuss the technique and its basic implementation in Python and use different real world data sets to evaluate the predictive power of our extension. These experiments show clear advantages in combining both techniques with regard to predictive power.

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