Compiler-Level Optimizations for High-Performance Cloud-Native Applications Using Hybrid Static–Dynamic Analysis

Authors

  • Lakshmi Reddy Motati Senior Technology Manager, Dallas, Texas, USA Author
  • Deng Ying Assistant Professor of Computer Science and Engineering, Jiujiang Vocational and Technical College, Jiangxi, China Author
  • Marcus Rodriguez Computer Scientist, PICSciE, New Jersy, United States Author

Keywords:

compiler optimizations, static analysis, dynamic profiling, cloud-native applications, microservices, containerization, performance engineering, latency reduction, resource efficiency

Abstract

High-performance cloud-native applications in microservice-oriented and containerized settings are optimized at the compiler level in this research. Container orchestration, dynamic workload scaling, and various execution contexts enhance performance variability in lightweight, modular distributed systems, requiring hybrid static–dynamic optimization methods. The research examines how compilers might employ static code analysis and runtime profiling to develop adaptive optimization pipelines that decrease CPU, memory, and tail-latency fluctuations. Intermediate representations, just-in-time (JIT) optimization triggers, cross-layer instrumentation, and microarchitectural feedback loops are examined to create a unified design that enhances execution efficiency without compromising service isolation or deployment portability. Tests indicate that hybrid analysis allows fine-grained specialization, anticipatory inlining, and resource-aware code adjustments that considerably improve cloud-native workload performance consistency. This work comprehensively analyzes compiler-assisted optimization models for modern cloud infrastructure operational semantics and performance.

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Published

05-01-2024

How to Cite

[1]
Lakshmi Reddy Motati, Deng Ying, and Marcus Rodriguez, “Compiler-Level Optimizations for High-Performance Cloud-Native Applications Using Hybrid Static–Dynamic Analysis”, American J Data Sci Artif Intell Innov, vol. 4, pp. 263–295, Jan. 2024, Accessed: Mar. 07, 2026. [Online]. Available: https://ajdsai.org/index.php/publication/article/view/113