Volume 35 #1

Contents

1. Ommochromes of the Compound Eye of Insects: Antiglycation Activity
2. Visual neurons of fish tectum opticum, their extracellular spike activity and search for their adequate stimulation
3. Downregulation of cockroach UV-sensitive visual pigment decreases masking effect of short wavelength illumination
4. Frequency-time features of eye movement when using the video-oculographic interface in ergatic system control problems
5. The use of vibrational signals of insects to develop safe methods for pest control
6. General ensemble method for multi-view clustering
7. Improvement of a line segment detector based on a neural network by adding engineering features
8. Recognition of projectively transformed planar figures. XV. Methods for searching for axes and centers of ovals with symmetries, using a set of dual pairs of cevian triads
9. Hardware independence and accuracy of neural network denoising of images depending on training set size

The paper is devoted to the development of the concept of the capabilities of video-oculographic interfaces in management tasks. The results of studying the parameters of human eye movement using a video-oculographic interface for controlling an object on a plane are presented. It is shown that in the course of the experiment, the number of errors and the number of subjects who did not perform successful control decreased from attempt to attempt, as well as the dependence of the ability of such control on the human temperament and working memory features. At high values of working memory, users make more sharp high-amplitude movements of the pupil with a period of up to 1.6 s, forming a control pattern, which eventually leads to more control errors and does not achieve the desired result. To a large extent, the results obtained are related to horizontal rather than vertical eye movements. The presented results will be useful for creating and applying human-computer interfaces in digital monitoring in the management of ergatic systems and can serve as a starting point for the development of high-speed oculographic interfaces with significantly broader functionality than the existing ones.

Key words: oculographic interface, ergatic systems, digital monitoring, human-computer interface

DOI: 10.31857/S0235009221010091

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