The Rise of Automated Cybercrime: How AI is Redefining Cyber Threats

Author

Harshita Gautam, Ritu Dagar, and Dr. Manju Rani


Abstract

 Artificial intelligence (AI) is changing the economics and operational possibilities of cybercrime, but it is important to distinguish automated activity from activity specifically enabled by AI. This paper examines AI-assisted and automated cyber threats, with attention to phishing and social engineering, credential theft, ransomware, reconnaissance, and vulnerability exploitation. It uses an exploratory mixed-source design: a questionnaire completed by 36 university students is interpreted alongside published evidence from IBM X-Force, the World Economic Forum (WEF), the European Union Agency for Cybersecurity (ENISA), Verizon, and peer-reviewed research. In the student sample, 32 respondents (88.9%) reported awareness of AI-based cyber threats; 19 (52.8%) reported receiving suspicious or potentially phishing-related messages; 22 (61.1%) believed AI makes cybercrime more dangerous; and the most common self-rated cybersecurity-awareness score was 3 out of 5 (47.2%). External reports describe an 84% year-on-year increase in emails delivering infostealer malware observed by IBM in 2024, while WEF reported that 66% of surveyed organisations expected AI to have a significant cybersecurity impact and 37% had processes for assessing AI-tool security before deployment. These figures come from different samples and measurement frameworks and are not directly comparable. The paper argues that AI is best understood as an amplifier of selected attack capabilities rather than a universal or sole cause of cybercrime. It recommends layered controls, identity protection, secure AI adoption, verification procedures, and practical cybersecurity education. Because the student sample is small and self-reported, the primary findings are descriptive and exploratory rather than generalisable or causal.



Keywords

artificial intelligence, automated cybercrime, generative AI, phishing, social engineering, cybersecurity awareness, credential theft



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References


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Evaluation domain

Example indicator

Interpretation caution

Preparedness

Percentage of accounts protected by MFA

Coverage should be interpreted alongside account type and authentication strength

Human response

Correct identification and reporting rate in safe simulations

Simulation performance does not perfectly predict behaviour during real incidents

Detection

Median time from alert to triage

Lower time is useful only if accuracy and workload remain acceptable

Resilience

Successful restoration in scheduled recovery tests

A backup is not a proven recovery capability until restoration is tested

Learning

Change in scenario-based assessment from pre-test to post-test

Use comparable instruments and report attrition and uncertainty

The indicators in Table 6 are proposed evaluation measures, not outcomes observed in the present study. They should be selected in advance, measured consistently, and reviewed for unintended effects such as excessive false-positive alerts or privacy intrusion.

 

 

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