An improved fixation point generator for TDFN is trained to match the difference between the network's reconstructed image and the input image, yielding better MNIST accuracy with fewer fixations than the prior RL approach.
Task-Driven Fixation Network: An Efficient Architecture with Fixation Selection
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abstract
This paper presents a novel neural network architecture featuring automatic fixation point selection, designed to efficiently address complex tasks with reduced network size and computational overhead. The proposed model consists of: a low-resolution channel that captures low-resolution global features from input images; a high-resolution channel that sequentially extracts localized high-resolution features; and a hybrid encoding module that integrates the features from both channels. A defining characteristic of the hybrid encoding module is the inclusion of a fixation point generator, which dynamically produces fixation points, enabling the high-resolution channel to focus on regions of interest. The fixation points are generated in a task-driven manner, enabling the automatic selection of regions of interest. This approach avoids exhaustive high-resolution analysis of the entire image, maintaining task performance and computational efficiency.
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Advancing TDFN: Precise Fixation Point Generation Using Reconstruction Differences
An improved fixation point generator for TDFN is trained to match the difference between the network's reconstructed image and the input image, yielding better MNIST accuracy with fewer fixations than the prior RL approach.