We tackle the problem of robot localization by means of a deep learning (DL) approach. Convolutional neural networks, mainly devised for image analysis, are at the core of the proposed solution. An optical encoder neural network (OE-net) is devised to give back the relative pose of a robot by processing consecutive images. A monocular camera, fastened on the robot and oriented toward the floor, collects the vision data. The OE-net takes a pair of the acquired consecutive images as input and provides the relative pose information. The neural network is trained using a supervised learning approach. This preliminary study, made on synthetic images, suggests that a convolutional network and hence a DL approach can be a viable complement to the traditional visual odometry for robot ego-motion estimation. The obtained outcomes look very promising.
Optical encoder neural network: a CNN-based optical encoder for robot localization
Patruno C.
Primo
;Renò V.;Nitti M.;Mosca N.
2022
Abstract
We tackle the problem of robot localization by means of a deep learning (DL) approach. Convolutional neural networks, mainly devised for image analysis, are at the core of the proposed solution. An optical encoder neural network (OE-net) is devised to give back the relative pose of a robot by processing consecutive images. A monocular camera, fastened on the robot and oriented toward the floor, collects the vision data. The OE-net takes a pair of the acquired consecutive images as input and provides the relative pose information. The neural network is trained using a supervised learning approach. This preliminary study, made on synthetic images, suggests that a convolutional network and hence a DL approach can be a viable complement to the traditional visual odometry for robot ego-motion estimation. The obtained outcomes look very promising.File | Dimensione | Formato | |
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Optical encoder neural network a CNN-based optical encoder for robot localization.pdf
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