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article · Machine Learning with Applications

Comparative analysis of credit card fraud detection in Simulated Annealing trained Artificial Neural Network and Hierarchical Temporal Memory

202149 citationsOpen accessNational Open University of Nigeria

In plain language

Online credit card fraud remains a severe challenge for e-commerce platforms and financial institutions, as misclassification leads directly to financial loss. To address this issue, an emerging online learning method known as Hierarchical Temporal Memory based on Cortical Learning Algorithms (HTM-CLA) was evaluated alongside other machine learning techniques. The investigation compared HTM-CLA against an Artificial Neural Network trained using Simulated Annealing (SA-ANN) and a Long Short-Term Memory network (LSTM-ANN). Evaluations were carried out using simulation tests on two established benchmark datasets, namely the Australian and German credit card fraud data, measuring success through an average classification performance ratio metric. The simulation findings revealed that HTM-CLA demonstrated competitive performance when compared to the SA-ANN model. Furthermore, HTM-CLA substantially exceeded the performance of the deep recurrent LSTM-ANN system across the tested benchmark datasets, achieving an advantage by a factor of two to one.

Key takeaways

  • Hierarchical Temporal Memory based on Cortical Learning Algorithms was evaluated for credit card fraud detection against two artificial neural network approaches.
  • Testing on Australian and German benchmark datasets demonstrated that the Cortical Learning Algorithm approach offered competitive performance compared to an Artificial Neural Network trained with Simulated Annealing.
  • The Cortical Learning Algorithm outperformed the Long Short-Term Memory neural network by a factor of two to one on the evaluated datasets.

Why it matters

Online fraud inflicts major financial damage on digital merchants and banking institutions. Improving automated anomaly detection helps reduce misclassification errors during payment processing. Demonstrating that alternative learning architectures such as Hierarchical Temporal Memory can rival or outperform conventional recurrent neural networks highlights practical routes for improving fraud detection efficiency.

Commercialisation angle

The evaluated models target fraud detection systems for financial institutions and e-commerce merchants seeking to minimise transactional losses. Because the findings are based on simulations across standard Australian and German benchmark datasets, the technology is at an applied research stage. Further operational validation on live, streaming transaction data would be required before integrating these algorithms into commercial fraud prevention software.

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Abstract

The problem of misclassification has always been a major concern in detecting online credit card fraud in e-commerce systems. This concern greatly poses a significant challenge to financial institutions and online merchants with regards to financial loss. This paper specifically compares an Artificial Neural Network trained by the Simulated Annealing technique (SA-ANN) with a proposed emerging online learning technology in anomaly detection known as the Hierarchical Temporal Memory based on the Cortical Learning Algorithms (HTM-CLA). Comparisons are also made with a deep recurrent neural technique based on the Long Short-Term Memory ANN (LSTM-ANN). The performances of these systems are investigated on the basis of correctly classifying credit card fraud (CCF) using an average classification performance ratio metric. The results of simulations on two CCF benchmark datasets (the Australian and German CCF data) showed promising competitive performance of the proposed HTM-CLA with the SA-ANN. The HTM-CLA also clearly outperformed the LSTM-ANN in the considered benchmark datasets by a factor of 2:1.

Research topics

  • Imbalanced Data Classification Techniques
  • Anomaly Detection Techniques and Applications
  • Electricity Theft Detection Techniques

Sustainable Development Goals

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DOI: 10.1016/j.mlwa.2021.100080

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