Architecting Real-Time Data Systems: Best Practices for Scalable Integration
DOI:
https://doi.org/10.32996/jcsts.2025.7.8.73Keywords:
Real-time data processing, event-driven architecture, distributed computing, stream processing, in-memory databases, system monitoringAbstract
Contemporary digital enterprises encounter significant challenges managing continuous data streams requiring immediate processing and response capabilities across distributed computing environments. Modern real-time data architectures must accommodate massive information volumes while maintaining sub-second latency requirements throughout complex system networks. Event-driven architectural patterns have emerged as fundamental solutions for handling continuous data flows, enabling organizations to process extensive sensor readings while maintaining system responsiveness during peak operational periods. Cloud-based frameworks demonstrate exceptional scalability potential through elastic resource allocation strategies that automatically adjust processing capacity from baseline rates to extreme peak demands. Unified stream processing models eliminate traditional lambda architecture complexity by providing streaming-first designs that treat batch operations as bounded datasets within a single framework environment. Distributed message queuing systems enable automatic scaling decisions within seconds of detecting workload changes while maintaining high load balancing efficiency rates across heterogeneous processing environments. Columnar in-memory architectures revolutionize database processing by achieving sub-second response times for both transactional and analytical workloads through advanced compression techniques. Distributed tracing infrastructures provide comprehensive system visibility with minimal performance overhead, collecting traces across millions of requests while maintaining negligible impact on application latency. Advanced event forecasting systems demonstrate how recurrent neural networks can predict system anomalies with exceptional accuracy rates, enabling proactive alerting strategies that warn operators well before customer-impacting incidents occur. The integration of machine learning algorithms with real-time monitoring systems creates intelligent observability platforms capable of distinguishing between normal operational variations and genuine system problems requiring immediate attention. These technological convergences enable organizations to build resilient data processing ecosystems that adapt dynamically to changing operational demands while maintaining consistent performance standards.