A computational model for the control of horizontal vergence, based on a population of disparity tuned complex cells, is presented. The model directly extracts the disparity-vergence response by combining the outputs of the disparity detectors without explicit calculation of the disparity map. The resulting vergence control yields to stable fixation and has small response time to a wide range of disparities. Experimental simulations with synthetic stimuli in depth validated the approach
The human naturally possesses a robust and effective binocular vision system that utilizes saccade a...
We present a technique for guiding vergence movements for an active stereo camera system and for cal...
The neural origin of the steady-state vergence eye movement error, called binocular fixation dispari...
A computational model for the control of horizontal vergence, based on a population of disparity tun...
A neural network architecture able to autonomously learn effective disparity-vergence responses and ...
We present two neural models for vergence angle control of a robotic head, a simplified and a more c...
The ability of a real robot system to interact with the surrounding environment is subordinate to it...
Vergence eye movements align the optical axes of our two eyes onto an object of interest, thus facil...
AbstractWe present a neural network model of short-term dynamics of the human horizontal vergence sy...
We present a neural network model of short-term dynamics of the human horizontal vergence system (HV...
We present a biologically-inspired model for the one-shot vergence control of a robotic head, which ...
AbstractDesigning an active visual system, able to autonomously learn its behavior, implies to make ...
Designing an active visual system, able to autonomously learn its behavior, implies to make the lear...
A robotic system implementation that exhibits autonomous learning capabilities of effective control ...
Vergence control and tracking allow a robot to maintain an accurate estimate of a dynamic object thr...
The human naturally possesses a robust and effective binocular vision system that utilizes saccade a...
We present a technique for guiding vergence movements for an active stereo camera system and for cal...
The neural origin of the steady-state vergence eye movement error, called binocular fixation dispari...
A computational model for the control of horizontal vergence, based on a population of disparity tun...
A neural network architecture able to autonomously learn effective disparity-vergence responses and ...
We present two neural models for vergence angle control of a robotic head, a simplified and a more c...
The ability of a real robot system to interact with the surrounding environment is subordinate to it...
Vergence eye movements align the optical axes of our two eyes onto an object of interest, thus facil...
AbstractWe present a neural network model of short-term dynamics of the human horizontal vergence sy...
We present a neural network model of short-term dynamics of the human horizontal vergence system (HV...
We present a biologically-inspired model for the one-shot vergence control of a robotic head, which ...
AbstractDesigning an active visual system, able to autonomously learn its behavior, implies to make ...
Designing an active visual system, able to autonomously learn its behavior, implies to make the lear...
A robotic system implementation that exhibits autonomous learning capabilities of effective control ...
Vergence control and tracking allow a robot to maintain an accurate estimate of a dynamic object thr...
The human naturally possesses a robust and effective binocular vision system that utilizes saccade a...
We present a technique for guiding vergence movements for an active stereo camera system and for cal...
The neural origin of the steady-state vergence eye movement error, called binocular fixation dispari...