TL;DR
This paper details a high-performing, simple model for visual question answering (VQA) that won the 2017 VQA Challenge, highlighting architecture choices and hyperparameters that significantly improve performance.
Contribution
The paper introduces a set of effective tips and tricks for VQA model design, derived from extensive experimentation, to guide future research and development.
Findings
Sigmoid outputs improve accuracy
Image features from bottom-up attention enhance performance
Large mini-batches and smart shuffling are beneficial
Abstract
This paper presents a state-of-the-art model for visual question answering (VQA), which won the first place in the 2017 VQA Challenge. VQA is a task of significant importance for research in artificial intelligence, given its multimodal nature, clear evaluation protocol, and potential real-world applications. The performance of deep neural networks for VQA is very dependent on choices of architectures and hyperparameters. To help further research in the area, we describe in detail our high-performing, though relatively simple model. Through a massive exploration of architectures and hyperparameters representing more than 3,000 GPU-hours, we identified tips and tricks that lead to its success, namely: sigmoid outputs, soft training targets, image features from bottom-up attention, gated tanh activations, output embeddings initialized using GloVe and Google Images, large mini-batches, and…
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Taxonomy
MethodsGloVe Embeddings
