A Unified Framework for Secure Data Platforms: Combining Data Engineering, AI Analytics, and Intelligent Threat Detection
DOI:
https://doi.org/10.63282/3050-922X.IJERET-V7I2P135Keywords:
Data Engineering, Artificial Intelligence Analytics, Intelligent Threat Detection, Secure Data Platforms, Machine Learning, Cybersecurity, Enterprise Data Ecosystems, Data Governance, Predictive Analytics, Security IntelligenceAbstract
The exponential growth of enterprise data has transformed organizational decision-making processes, creating unprecedented opportunities for innovation, operational efficiency, and competitive advantage. Modern enterprises rely heavily on secure data platforms capable of collecting, processing, storing, and analyzing vast volumes of structured and unstructured data generated from diverse sources, including cloud services, Internet of Things (IoT) devices, business applications, and digital ecosystems. However, the increasing complexity of data environments has simultaneously introduced significant cybersecurity challenges, including unauthorized access, insider threats, advanced persistent attacks, ransomware, and data leakage incidents. Traditional security mechanisms often operate independently from data engineering and analytics infrastructures, resulting in fragmented protection strategies and limited situational awareness. This study proposes a Unified Framework for Secure Data Platforms that integrates data engineering, artificial intelligence (AI) analytics, and intelligent threat detection into a cohesive architecture. The framework combines scalable data pipelines, governance mechanisms, machine learning-driven analytics, and real-time security monitoring to create a resilient enterprise data ecosystem. The proposed architecture emphasizes seamless integration between data acquisition, processing, analytics, and cybersecurity layers while enabling continuous threat intelligence and adaptive risk management. A systematic review of existing literature was conducted to identify current trends, limitations, and integration challenges associated with secure data platforms. Comparative analysis revealed that most existing frameworks focus on either data management or cybersecurity, with limited emphasis on unified operational intelligence. The proposed framework addresses this gap by establishing collaborative interactions among data engineering processes, AI-based analytical capabilities, and intelligent threat detection systems. The theoretical evaluation demonstrates that the proposed architecture enhances data quality, operational visibility, predictive analytics accuracy, and cybersecurity resilience. Furthermore, the framework supports regulatory compliance, governance enforcement, and automated threat response capabilities. The findings contribute to the development of next-generation enterprise data platforms capable of supporting secure, intelligent, and scalable digital transformation initiatives.
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