1-planarity testing and embedding: An experimental study

IF 0.4 4区 计算机科学 Q4 MATHEMATICS
Carla Binucci, Walter Didimo, Fabrizio Montecchiani
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引用次数: 0

Abstract

Many papers study the natural problem of drawing nonplanar graphs with few crossings per edge. In particular, a graph is 1-planar if it can be drawn in the plane with at most one crossing per edge. Unfortunately, while testing graph planarity is solvable in linear time and several efficient algorithms have been described in the literature, deciding whether a graph is 1-planar is NP-complete, even for restricted classes of graphs. Despite some polynomial-time algorithms are known for recognizing specific subfamilies of 1-planar graphs, there is still a lack of practical 1-planarity testing algorithms and no implementation is available for general graphs. This paper investigates the feasibility of a 1-planarity testing and embedding algorithm based on a backtracking strategy. Our contribution provides initial indications that have the potential to stimulate further research on the design of practical approaches for the 1-planarity testing problem. On the one hand, our experiments show that a backtracking strategy can be successfully applied to graphs with up to 30 vertices. On the other hand, our study suggests that alternative techniques are needed to attack larger graphs.

1-平面性检验与嵌入:实验研究
许多论文研究了绘制每条边交叉点很少的非平面图的自然问题。特别地,如果一个图可以在平面上绘制,每条边最多有一个交叉,那么它就是平面图。不幸的是,虽然测试图的平面性在线性时间内是可解的,并且文献中已经描述了几种有效的算法,但决定一个图是否为1-平面是np完全的,即使对有限的图类也是如此。尽管已知一些多项式时间算法用于识别1-平面图的特定子族,但仍然缺乏实用的1-平面图测试算法,并且没有可用于一般图的实现。研究了一种基于回溯策略的1-平面性测试与嵌入算法的可行性。我们的贡献提供了初步的指示,有可能刺激对1-平面性测试问题的实际方法设计的进一步研究。一方面,我们的实验表明回溯策略可以成功地应用于多达30个顶点的图。另一方面,我们的研究表明,需要其他技术来攻击更大的图。
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来源期刊
CiteScore
1.60
自引率
16.70%
发文量
43
审稿时长
>12 weeks
期刊介绍: Computational Geometry is a forum for research in theoretical and applied aspects of computational geometry. The journal publishes fundamental research in all areas of the subject, as well as disseminating information on the applications, techniques, and use of computational geometry. Computational Geometry publishes articles on the design and analysis of geometric algorithms. All aspects of computational geometry are covered, including the numerical, graph theoretical and combinatorial aspects. Also welcomed are computational geometry solutions to fundamental problems arising in computer graphics, pattern recognition, robotics, image processing, CAD-CAM, VLSI design and geographical information systems. Computational Geometry features a special section containing open problems and concise reports on implementations of computational geometry tools.
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