目标识别的并行算法及其在MIMD机器上的实现

B. Modayur, L. Shapiro
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引用次数: 2

摘要

B. Modayur和I.G. Shapiro(1994)提出的PERFORM匹配方法通过建立模型与图像特征之间的对应关系,解决了有界误差噪声模型下的识别问题。PERFORM通过相交图像空间中的错误区域来计算对应关系。本文描述了PERFORM匹配方法的并行公式以及共享内存、MIMD实现的含义。当求单个解时,使用点特征的顺序匹配算法在2D-2D匹配时的时间复杂度为O(I/sup 2/NI)阶,在2D-3D匹配时的时间复杂度为O(I/sup 3/NI)阶,其中N为模型特征个数,I为图像特征个数。相应的并行算法采用O(I/sup 2/)处理器进行2D-2D匹配,2D-3D匹配的处理器复杂度为O(NI)。当使用线特征时,2D-2D匹配的顺序复杂度为O(I NI), 2D-3D匹配的顺序复杂度为O(I/sup 2/ NI)。相应的并行算法采用O(I)处理器进行2D-2D匹配,O(I/sup 2/)处理器进行2D-3D匹配,复杂度为O(NI)。当并行实现时,该方法需要最小的内存,并避免了负载平衡开销和处理器之间的通信。本文描述了在共享内存MIMD机器(KSR-I)上并行实现2D-2D匹配。结果表明,使用多处理器可以实现显著的、接近线性的加速。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Parallel algorithm for object recognition and its implementation on a MIMD machine
The PERFORM matching method, introduced by B. Modayur and I.G. Shapiro (1994), solves the recognition problem under a bounded error noise model by establishing correspondences between model and image features. PERFORM evaluates correspondences by intersecting error regions in the image space. The article describes the parallel formulation of the PERFORM matching method and the implications of a shared memory, MIMD implementation. When a single solution is sought, the time complexity of the sequential matching algorithm using point features is of the order O(I/sup 2/NI) for 2D-2D matching and O(I/sup 3/NI) for 2D-3D matching, where N is the number of model features and I is the number of image features. The corresponding parallel algorithm using O(I/sup 2/) processors for 2D-2D matching and processors for 2D-3D matching has O(NI) complexity. When line features are used, the sequential complexity is of the order O(I NI) for 2D-2D matching and O(I/sup 2/ NI) for 2D-3D matching. The corresponding parallel algorithm utilizing O(I) processors for 2D-2D matching and O(I/sup 2/) processors for 2D-3D matching has O(NI) complexity. When implemented in parallel, the method requires minimal memory and obviates load balancing overheads and communication between processors. The article describes parallel implementations of 2D-2D matching on a shared memory, MIMD machine (KSR-I). Results show that significant, close to linear speedups are achievable using multiple processors.
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