Interpreting Criminal Charge Prediction and Its Algorithmic Bias via Quantum-Inspired Complex Valued Networks
Abdul Rafae Khan, Jia Xu, Peter Varsanyi, Rachit Pabreja

TL;DR
This paper introduces a quantum-inspired complex-valued neural network approach to predict criminal charges, providing transparency and addressing bias by analyzing feature importance and temporal behavior patterns over twenty years.
Contribution
It proposes a novel quantum-inspired complex-valued network for criminal charge prediction that enhances interpretability and reduces bias compared to traditional deep learning models.
Findings
High prediction accuracy and reliability on real data
Criminal history significantly influences predictions
Race and age are statistically insignificant factors
Abstract
While predictive policing has become increasingly common in assisting with decisions in the criminal justice system, the use of these results is still controversial. Some software based on deep learning lacks accuracy (e.g., in F-1), and importantly many decision processes are not transparent, causing doubt about decision bias, such as perceived racial and age disparities. This paper addresses bias issues with post-hoc explanations to provide a trustable prediction of whether a person will receive future criminal charges given one's previous criminal records by learning temporal behavior patterns over twenty years. Bi-LSTM relieves the vanishing gradient problem, attentional mechanisms allow learning and interpretation of feature importance, and complex-valued networks inspired quantum physics to facilitate a certain level of transparency in modeling the decision process. Our approach…
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Taxonomy
TopicsAdversarial Robustness in Machine Learning · Crime Patterns and Interventions · Anomaly Detection Techniques and Applications
