Ahmed A. Abd El-Latif, Lo'ai A. Tawalbeh, Manoranjan Mohanty, Brij B. Gupta, Konstantinos E. Psannis
CRC Press
10/7/2024
9781032075396
292
The integration of Moving Target Defense (MTD) strategies enhances web application security by making the attack surface dynamic and unpredictable. This is achieved through dynamic infrastructure, component rotation, and adaptive access control. MTD's dynamic infrastructure, like server rotation and load balancing, makes it difficult for attackers to exploit static vulnerabilities. Component rotation, such as changing IP addresses and encryption keys, invalidates known attack vectors. Adaptive access control monitors user behavior and adjusts permissions in real-time, mitigating unauthorized actions.
Challenges in implementing MTD include scalability, performance overhead, management complexity, and compatibility with legacy systems. Scalability issues can be addressed with efficient resource management and scalable monitoring solutions. Performance overhead can be mitigated by balancing security and user experience. Management complexity can be reduced with effective configuration management and continuous monitoring. Compatibility with legacy systems can be overcome with careful planning and resource allocation. Solutions like continuous monitoring, threat intelligence integration, automation, and user and entity behavior analytics can help address these challenges and enhance security.
Blockchain technology's key advancements contributing to data security and trustworthiness in smart city infrastructures include its decentralized and tamper-resistant ledger, ensuring transparency and data integrity. Smart contracts, self-executing agreements on the blockchain, automate processes, enhance transparency, and enforce agreements without intermediaries, fostering trust. Data governance models within blockchain, like permissioned blockchains, control data access, and smart contracts enforce automated data policies, ensuring consistent adherence and reducing human error. These features, combined with blockchain's immutability and cryptographic security, create a robust framework for secure and trustworthy data management in smart cities.
Recent advancements in digital forensics and cybercrime investigation are reshaping the field by integrating cutting-edge technologies and methodologies. The integration of artificial intelligence (AI) and machine learning is automating complex tasks like pattern recognition and anomaly detection in large datasets. Predictive analytics is being used to anticipate cyber threats, while blockchain technology is enhancing data security and trust in smart cities. Augmented reality (AR) is transforming crime scene investigations, and quantum-resistant cryptography is addressing the challenges posed by quantum computing. Additionally, the fusion of biometric systems with multimedia forensics is providing new avenues for cybercrime investigations. These developments are not only improving the efficiency and effectiveness of investigations but also raising new ethical and legal considerations.
Convolutional Neural Networks (CNNs) play a crucial role in intrusion detection systems (IDS) by enhancing network security in the context of cybercrime investigation. They excel at processing and extracting features from spatial and sequential data, such as network traffic and system logs. This capability allows CNNs to identify complex patterns and anomalies that may indicate cyber threats.
CNNs are particularly effective in intrusion detection due to their ability to:
By integrating CNNs into IDS, organizations can significantly enhance their network security, making it more challenging for cybercriminals to breach their systems. This integration is a key step in the ongoing effort to combat the dynamic and sophisticated nature of modern cyber threats.
Emerging technologies like AR, chaotic watermarking, and deep learning models are revolutionizing forensic science and cybercrime investigation. AR enhances crime scene analysis by providing 3D reconstructions and real-time information, while chaotic watermarking improves digital content security and tamper detection. Deep learning models, particularly in face sketch synthesis, aid in reconstructing suspect appearances and analyzing large datasets.
Challenges include data privacy, ethical concerns, and the need for interdisciplinary collaboration. Future directions involve integrating AI and machine learning to combat AI-driven cybercrimes, exploring quantum-resistant cryptography, and addressing ethical implications of AI and predictive policing. Additionally, advancements in biometrics, VR/AR, and IoT will likely improve forensic processes' accuracy, transparency, and efficiency.