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引用次数: 3
摘要
CogniVision是一种受神经学启发的收敛控制模型,它利用交错的、对数极变换的、皮层映射在视觉皮层(VC)上的视差误差进行优化[13]。本文提出的结果,说明了一个生物学启发的收敛控制一对2 DOF泛倾斜相机。这项工作说明了皮质模型在基线独立和缺乏目标配准的情况下进行双目收敛的能力。它的灵感来自于神经科学领域的一系列发现。参见Schwartz (1977) [1], Tootell et al(1982)[2]和诺贝尔奖得主Hubel et al(1974)[4]。我们简要地解释了如何成功地使用VC上的对数极图像来确定平移角(视差),从而对场景中的点进行双目收敛。本文最后的讨论强调了该系统与需要匹配特定物体形状的传统物体对应系统之间的显着差异。在该模型中,使用皮质放大的VC图像来匹配整个图像。
Baseline Independent Binocular Vergence Control of 2 DOF Pan-Tilt Cameras using a Visual cortical Model
CogniVision is a neurologically inspired vergence control model that uses the optimization of the disparity error between interlaced, log-polar transformed, cortical maps incident on the visual cortex (VC) [13]. This paper presents results that illustrate a biologically inspired vergence control of a pair of 2 DOF pan-tilt cameras. This work illustrates the ability of the cortical model to perform binocular vergence with baseline independence and absence of object registration. It was inspired by a collection of discoveries in the area of neuroscience. See Schwartz (1977) [1], Tootell et al (1982) [2] and Nobel Prize Winner Hubel et al (1974) [4]. We briefly explain how the log- polar image incident on the VC can be used successfully to determine the pan angle (saccade) to perform binocular vergence on points of in the scene. A discussion at the end of the paper highlights the significant differences between this system and the conventional object correspondence systems that require matching of specific object shapes. In this model, the cortically magnified VC image is used to match the entire image.