Multi-path Coverage of All Final States for Model-Based Testing Theory Using Spark In-memory Design

W. Adoni, M. Krichen, Tarik Nahhal, A. Elbyed
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Abstract

This paper deals with an efficient and robust distributed framework for finite state machine coverage in the field model based testing theory. All final states coverage in large-scale automaton is inherently computing-intensive and memory exhausting with impractical time complexity because of an explosion of the number of states. Thus, it is important to propose a faster solution that reduces the time complexity by exploiting big data concept based on Spark RDD computation. To cope with this situation, we propose a parallel and distributed approach based on Spark in-memory design which exploits A* algorithm for optimal coverage. The experiments performed on multi-node cluster prove that the proposed framework achieves significant gain of the computation time.
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基于Spark内存设计的基于模型的测试理论中所有最终状态的多路径覆盖
本文研究了基于现场模型测试理论的有限状态机覆盖的高效、鲁棒的分布式框架。在大规模自动机中,所有最终状态覆盖都是固有的计算密集型和内存耗尽,并且由于状态数量的爆炸而导致不切实际的时间复杂性。因此,利用基于Spark RDD计算的大数据概念,提出一个更快的解决方案来降低时间复杂度是很重要的。为了应对这种情况,我们提出了一种基于Spark内存设计的并行分布式方法,该方法利用a *算法实现最优覆盖。在多节点集群上进行的实验证明,该框架在计算时间上有明显的提高。
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