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DIJIT introduces a high-fidelity binocular robotic head with nine mechanical and four optical degrees of freedom, achieving 85% of peak human saccade speed to facilitate active vision research. By replicating human eye-head coordination and stereo convergence, the system offers a robust platform for benchmarking computer vision methods against biological visual processing. This hardware advancement provides a critical tool for studying the interrelationships between motion mechanics and visual ability in mobile agents.
DIJIT: A Robotic Head for an Active Observer
arXiv:2512.07998v2 Announce Type: replace Abstract: We present DIJIT, a novel binocular robotic head expressly designed for mobile agents that behave as active observers. DIJIT's unique breadth of functionality enables active vision research and the study of human-like eye and head-neck motions, their interrelationships, and how each contributes to visual ability. DIJIT is also being used to explore the differences between how human vision employs eye/head movements to solve visual tasks and current computer vision methods. DIJIT's design features nine mechanical degrees of freedom, while the cameras and lenses provide an additional four optical degrees of freedom. The ranges and speeds of the mechanical design are comparable to human performance. DIJIT attains 85\% of the peak human saccade speed. Our design includes the ranges of motion required for convergent stereo, namely, vergence, version, and cyclotorsion. Here, we present DIJIT and some aspects of its performance. We also present a novel method for saccadic camera movements, using a direct relationship between camera orientation and motor values. The resulting saccadic camera movements are close to human movements in terms of their accuracy, with 1.17$^\circ$ and 1.14$^\circ$ mean error for the left and right cameras, respectively.
Abstract:We present DIJIT, a novel binocular robotic head expressly designed for mobile agents that behave as active observers. DIJIT's unique breadth of functionality enables active vision research and the study of human-like eye and head-neck motions, their interrelationships, and how each contributes to visual ability. DIJIT is also being used to explore the differences between how human vision employs eye/head movements to solve visual tasks and current computer vision methods. DIJIT's design features nine mechanical degrees of freedom, while the cameras and lenses provide an additional four optical degrees of freedom. The ranges and speeds of the mechanical design are comparable to human performance. DIJIT attains 85\% of the peak human saccade speed. Our design includes the ranges of motion required for convergent stereo, namely, vergence, version, and cyclotorsion. Here, we present DIJIT and some aspects of its performance. We also present a novel method for saccadic camera movements, using a direct relationship between camera orientation and motor values. The resulting saccadic camera movements are close to human movements in terms of their accuracy, with 1.17$^\circ$ and 1.14$^\circ$ mean error for the left and right cameras, respectively.
Robotics (cs.RO); Computer Vision and Pattern Recognition (cs.CV)
arXiv:2512.07998 [cs.RO]
(or arXiv:2512.07998v2 [cs.RO] for this version)
https://doi.org/10.48550/arXiv.2512.07998 Focus to learn more arXiv-issued DOI via DataCite
IEEE Robotics and Automation Letters, Vol. 11, No. 6, pp. 7038-7045, June 2026
https://doi.org/10.1109/LRA.2026.3682980 Focus to learn more DOI(s) linking to related resources
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