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OOSP: Opportunistic Optimization Scheme for Pod Deployment Enhanced with Multilayered Sensing.
Joo-Young Roh1, Sang-Hoon Choi1, Ki-Woong Park2
1SysCore Lab, Sejong University, Seoul 05006, Republic of Korea.
Kubernetes scheduling can be inefficient for microservices. A new adaptive pod placement technique optimizes performance by considering service dependencies, reducing response times by 11.5% and improving throughput by 10.04%.
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Area of Science:
- Cloud Computing
- Distributed Systems
- Container Orchestration
Background:
- Kubernetes is the standard for container orchestration but its default scheduler has limitations.
- The default scheduler's focus on CPU/memory leads to suboptimal performance and resource waste in complex microservice architectures.
- Increased inter-service communication latency negatively impacts overall system performance.
Purpose of the Study:
- To propose an adaptive pod placement optimization technique for Kubernetes.
- To address the performance and resource efficiency limitations of the default Kubernetes scheduler.
- To improve application performance and resource utilization in cloud-native environments.
Main Methods:
- Developed an adaptive pod placement optimization technique using multi-tier inspection.
- Collected and analyzed multi-tier data, focusing on pod coupling and dependencies.
- Configured a Kubernetes cluster in a virtualized environment for experimental validation.
Main Results:
- The proposed method significantly outperformed the default Kubernetes scheduler.
- Achieved up to an 11.5% reduction in average response time.
- Increased requests processed per second by up to 10.04%.
Conclusions:
- The adaptive pod placement technique effectively minimizes inter-pod communication delay and enhances system-wide resource utilization.
- The method offers a more sophisticated and adaptive scheduling approach compared to traditional methods.
- This research contributes to optimizing cloud-native environments, with potential for broader application across diverse workloads and cloud platforms.