Titlebook: Exploratory Vision; The Active Eye Michael S. Landy,Laurence T. Maloney,Misha Pavel Book 1996 Springer-Verlag New York, Inc. 1996 Computer

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Moveo Ergo Video: Natural Retinal Image Motion and its Effect on Visionr influencing visual acuity. This review is followed by a summary of recent work in which it has been shown that oculomotor compensatory actions leave appreciable retinal image motion that, unexpectedly, has only minor detrimental effects on the capacity to resolve fine details in the visual scene.

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Eye Movements and the Complexity of Visual Processingspect to a specific constrained computer architecture. We suggest that eye movements may serve to reduce this constrained complexity for certain visual tasks. We begin by discussing human performance on several examples of perceptual tasks. We then informally introduce analysis of algorithmic comple

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Exploratory Vision: Some Implications for Retinal Sampling and Reconstructions we move, the image of a single object or location may fall successively on parts of the retina with markedly different optical qualities and photoreceptor densities. Yet, we typically manage not to confuse the particular characteristics of a retinal region with the appearance of an object imaged o

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Calibration of a Visual System with Receptor Drop-outof its photoreceptors. Weights in the network are adjusted by a process tending to make the internal image representation translation-invariant. We report on the behavior of this translation-invariance algorithm calibrating a visual system that has lost receptors. To attain robust performance in the

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Peripheral Visual Field, Fixation and Direction of Headingre-from-motion or egomotion typically do not make use of this constraint. In this paper, we investigate the computational advantage of fixation. The main contribution of this work is to specify precisely the form of the optical flow field for a fixating observer moving in a rigid world. In particula

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Local Qualitative Shape from Active Shadingurface. Our approach differs from classical active shape-from-shading (photometric stereo, Woodham, 1980), in two ways. First, we do not attempt to compute a dense depth map of the surface. Instead, we detect the presence of certain local qualitative geometric features. Second, we use two different

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A Framework for Information Assimilationn from disparate sources is needed in these systems. We posit that to do this seamlessly and efficiently, we should represent and use the “state” of the system (the Environment Model). Also, to handle differences in resolution and data rates, and to provide flexibility and dynamic reconfiguration, w