ENSEMBLE LEARNING FOR URL PHISHING DETECTION

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ENSEMBLE LEARNING FOR URL PHISHING DETECTION

ABSTRACT

Phishing attacks continue to pose significant threats to individuals and organizations, leading to financial losses, data breaches, and compromised security. As the sophistication of phishing techniques evolves, traditional rule-based and machine learning-based approaches for phishing detection face challenges in achieving high accuracy and robustness. In recent years, ensemble learning has emerged as a promising technique for improving the effectiveness of phishing detection systems.

Ensemble learning combines multiple classifiers or models to make predictions collectively, leveraging the strengths of individual models while mitigating their weaknesses. In the context of URL phishing detection, ensemble learning techniques have been successfully applied to enhance the accuracy, reliability, and generalization capabilities of detection systems. This abstract provides an overview of ensemble learning methods employed for URL phishing detection and highlights their advantages and challenges.

Ensemble learning for URL phishing detection typically involves constructing an ensemble of diverse classifiers, each trained on different subsets of features or data samples. These classifiers can be of various types, including decision trees, support vector machines, random forests, neural networks, or logistic regression models. The diversity among the classifiers is crucial to ensure that they capture different aspects of the phishing URLs, thereby increasing the ensemble's predictive power.

The ensemble learning process consists of two key steps: training and aggregation. During the training phase, each classifier in the ensemble is trained independently using different subsets of labeled phishing and legitimate URLs, along with a set of relevant features extracted from the URLs. These features may include domain-based, lexical, or content-based characteristics that capture the underlying patterns and characteristics of phishing URLs.

Once the individual classifiers are trained, the aggregation phase combines their predictions to produce a final decision. Various aggregation methods can be employed, such as majority voting, weighted voting, stacking, or boosting. These methods consider the collective opinion of the classifiers to make a final determination regarding the queried URL's legitimacy.

Ensemble learning offers several advantages for URL phishing detection. Firstly, it improves the detection accuracy by leveraging the collective knowledge of multiple models, which can compensate for individual model weaknesses and reduce the impact of false positives and false negatives. Secondly, ensemble models have better generalization capabilities, as they are less prone to overfitting, allowing them to handle unseen or evolving phishing techniques effectively. Lastly, ensemble learning enhances the robustness of the detection system, as it is more resilient to attacks targeting specific classifiers or features.

However, ensemble learning for URL phishing detection also presents challenges. Building an effective ensemble requires careful consideration of the diversity among the classifiers, to avoid overfitting and ensure meaningful contributions from each model. Additionally, training and maintaining an ensemble of classifiers can be computationally intensive and resource-demanding, requiring efficient algorithms and infrastructure.

In conclusion, ensemble learning has shown promise in improving the accuracy, generalization, and robustness of URL phishing detection systems. By combining the predictions of multiple classifiers, ensemble models can effectively identify and mitigate phishing attacks, providing enhanced security for individuals and organizations. Future research in this area should focus on developing novel ensemble learning techniques tailored to the evolving landscape of phishing threats and exploring the integration of other detection mechanisms to further enhance the overall effectiveness of phishing detection systems.

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