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In Cloud, Can Scientific Communities Benefit from the Economies of Scale? (1004.1276v1)

Published 8 Apr 2010 in cs.DC

Abstract: The basic idea behind Cloud computing is that resource providers offer elastic resources to end users. In this paper, we intend to answer one key question to the success of Cloud computing: in Cloud, can small or medium-scale scientific computing communities benefit from the economies of scale? Our research contributions are three-fold: first, we propose an enhanced scientific public cloud model (ESP) that encourages small- or medium-scale organizations to rent elastic resources from a public cloud provider; second, on a basis of the ESP model, we design and implement the DawningCloud system that can consolidate heterogeneous scientific workloads on a Cloud site; third, we propose an innovative emulation methodology and perform a comprehensive evaluation. We found that for two typical workloads: high throughput computing (HTC) and many task computing (MTC), DawningCloud saves the resource consumption maximally by 44.5% (HTC) and 72.6% (MTC) for service providers, and saves the total resource consumption maximally by 47.3% for a resource provider with respect to the previous two public Cloud solutions. To this end, we conclude that for typical workloads: HTC and MTC, DawningCloud can enable scientific communities to benefit from the economies of scale of public Clouds.

Citations (168)

Summary

  • The paper proposes an Enhanced Scientific Public Cloud (ESP) model and evaluates its implementation, DawningCloud, showing how dynamic resource management can consolidate workloads and achieve significant resource savings for scientific communities.
  • Experimental results using DawningCloud reveal substantial resource consumption reductions, demonstrating the potential for small/medium scientific communities to effectively leverage cloud economies of scale.
  • The findings suggest cloud computing offers a more efficient, scalable, and cost-effective alternative to traditional dedicated systems for scientific research by enabling better utilization of resources.

Analysis of Economies of Scale for Scientific Communities in Cloud Computing

The paper "In Cloud, Can Scientific Communities Benefit from the Economies of Scale?" by Lei Wang, Jianfeng Zhan, Weisong Shi, and Yi Liang examines the potential advantages that small and medium-scale scientific computing communities might gain from cloud computing. The research primarily aims to analyze whether the economies of scale in cloud computing can benefit these communities, especially focusing on two types of workloads: High Throughput Computing (HTC) and Many Task Computing (MTC).

Enhanced Scientific Public Cloud Model (ESP)

The authors propose an Enhanced Scientific Public Cloud model (ESP), designed to encourage small and medium-sized research organizations to rent resources from public cloud providers rather than maintaining dedicated systems. This approach aims to resolve the inefficiencies faced by dedicated systems, where resources are often underutilized during periods of low demand and insufficient during peak loads. The ESP model is set apart by allowing dynamic resizing of resources, which stands in contrast to previously established public cloud models such as Deelman's and Evangelinos's, which rely on either static resource management or on user-driven resource leases.

DawningCloud and Economies of Scale

The ESP model is operationalized through the DawningCloud system, which consolidates heterogeneous scientific workloads on a cloud site. DawningCloud provides flexible resource management capabilities that allow service providers to dynamically adjust resources based on real-time workload demands. The researchers designed an innovative emulation methodology to evaluate DawningCloud, focusing on two key workloads: HTC and MTC.

Experimental evaluations reveal significant resource savings for both service providers and resource providers using DawningCloud. Service providers can reduce resource consumption by up to 44.5% for HTC and 72.6% for MTC, while resource providers observe a total resource consumption saving of up to 47.3% compared to previous public cloud solutions. These results demonstrate the potential for small or medium-sized scientific communities to gain tangible benefits from cloud-based resource provisioning, taking full advantage of the economies of scale inherent in cloud computing.

Implications and Future Work

The findings have substantial implications for scientific communities considering cloud computing as a viable alternative to traditional dedicated cluster systems. The reductions in resource consumption not only translate to cost savings but also enable improved scalability and flexibility for scientific computations. By providing a platform that supports heterogeneous workload consolidation and dynamic resource management, DawningCloud exemplifies how cloud-based systems can be optimally leveraged by scientific communities.

Beyond the direct resource savings and performance benefits, the work presents opportunities for further exploration into more refined and specialized cloud models for other computing needs in scientific research. Future developments could explore enhanced scheduling algorithms, the incorporation of additional workload types, and further refinements of cloud usage models to better align with specific scientific applications.

The paper offers a compelling case for reconsidering computing infrastructure strategies within scientific communities, directing attention to the strategic benefits of leveraging public cloud resources efficiently, ultimately enhancing both computational efficiency and economic viability.