Achieving Enhanced Space Efficiency And Crash Resilience In Cloud-Based Garbage Collection Systems For Optimized Resource Management

Authors

  • Rajeev Kumar Research Scholar

Keywords:

Contemporary Computing, Cloud System, Optimization

Abstract

Cloud structures have their own set of problems such as separated assets and slowing down of network. One of the novel obstacles is to improve the systems of Garbage Collection (GC) like gradual switching on, intensive simulations, feedback systems, education systems, and constant maintenance. Automated restoration of dynamically allocated memory is completed using modernistic computers, and it is paramount against preventing memory leaks, improving stability, and boosting performance. Careful adjustments for incorporation of new features alongside optimization via slow rollout reduces the probable fan out failures. Expanded program monitoring and adjusting may contribute to greater than aiming maintenance because training flexibly accomplishes planned systems. Effective execution training and flexible systems helps to accomplish the goals set out. Suggestions that aid in aiding are very helpful in monitoring and control processes in GC. These goals have to be met through constant testing. Adjusting overrides followed by steady changes may prove helpful when maintaining equilibrium, enhancing performance retention, and stability. Applying incident response strategies is important in mitigating problems and managing damage, thereby advancing operational efficacy.To ensure that there’s an anticipated reduction in downtime coupled with diminished data loss, the usage of proactive systems needs to be embraced. To better mitigate security policy problems, updates are central in boosting the performance of systems. the continued prospects of fast advancement in artificial intelligence could lead to substantial enhancements in GCs efficiency and effectiveness.

References

Brown, P., Williams, T., & Davis, S. (2018). Evaluating garbage collection strategies for large scale applications. Computer Science Review, 32(2), 67-81.

Davis, R., Patel, N., & Garcia, L. (2022). Energy-efficient computing in cloud systems. Green Computing Journal, 15(3), 75-92.

Johnson, K. (2021). Scalability challenges in cloud resource management. Software Operations Journal, 29(1), 98-112.

Jones, R. (2014). Garbage collection: Algorithms for automatic dynamic memory management. Wiley.

Ishikawa, T., Takahashi, K., & Kobayashi, M. (2018). Efficient garbage collection in distributed systems: Challenges and solutions. International Journal of Cloud Computing and Services Science, 7(4), 299-310.

Lee, M., & Kim, H. (2019). Low-latency garbage collection in cloud environments. IT Management Quarterly, 41(4), 145-160.

Lindholm, T., & Yellin, F. (2011). the Java Virtual Machine Specification (3rd ed.). Addison Wesley.

Mowry, T. C. (2007). Memory management: A guide for programmers. Addison-Wesley.

Soni, A., & Banerjee, R. (2015). Optimized garbage collection strategies for cloud computing environments. Journal of Cloud Computing: Advances, Systems and Applications, 4(3), 215-229.

Smith, J., & Jones, R. (2020). Optimizing memory management in cloud systems. Journal of

Cloud Computing. 12(4), 345-359.

Yang, B., Chen, G., & Gao, C. (2014). Adaptive garbage collection algorithms in dynamic cloud environments. Cloud Computing and Distributed Systems, 1(2), 112-120

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Published

2025-03-28