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 simultaneous generating and learning


Zero-shot Learning via Simultaneous Generating and Learning

Neural Information Processing Systems

To overcome the absence of training data for unseen classes, conventional zero-shot learning approaches mainly train their model on seen datapoints and leverage the semantic descriptions for both seen and unseen classes. Beyond exploiting relations between classes of seen and unseen, we present a deep generative model to provide the model with experience about both seen and unseen classes. Based on the variational auto-encoder with class-specific multi-modal prior, the proposed method learns the conditional distribution of seen and unseen classes. In order to circumvent the need for samples of unseen classes, we treat the non-existing data as missing examples. That is, our network aims to find optimal unseen datapoints and model parameters, by iteratively following the generating and learning strategy. Since we obtain the conditional generative model for both seen and unseen classes, classification as well as generation can be performed directly without any off-the-shell classifiers. In experimental results, we demonstrate that the proposed generating and learning strategy makes the model achieve the outperforming results compared to that trained only on the seen classes, and also to the several state-of-the-art methods.


Reviews: Zero-shot Learning via Simultaneous Generating and Learning

Neural Information Processing Systems

Overview: The authors propose an original approach to zero-shot-learning by combining VAEs with EM for inferring the optimal unseen examples. The key idea is simultaneously generating examples of unseen classes and learning from them. The authors run a number of experiments which demonstrate that the proposed method shows competitive performance in a number of ZSL tasks. Quality: The work is generally of high quality. The experiments are clearly described, and the model specifications are detailed.


Reviews: Zero-shot Learning via Simultaneous Generating and Learning

Neural Information Processing Systems

The addresses zero-shot learning by an EM process of iteratively generating examples from unseen classes, and learning with them, this leads to generating samples that are good to learn from. Reviewers found the idea novel for this context, the writing clear and the experiments (mostly) convincing. They asked to see additional ablation studies in the final version.


Zero-shot Learning via Simultaneous Generating and Learning

Neural Information Processing Systems

To overcome the absence of training data for unseen classes, conventional zero-shot learning approaches mainly train their model on seen datapoints and leverage the semantic descriptions for both seen and unseen classes. Beyond exploiting relations between classes of seen and unseen, we present a deep generative model to provide the model with experience about both seen and unseen classes. Based on the variational auto-encoder with class-specific multi-modal prior, the proposed method learns the conditional distribution of seen and unseen classes. In order to circumvent the need for samples of unseen classes, we treat the non-existing data as missing examples. That is, our network aims to find optimal unseen datapoints and model parameters, by iteratively following the generating and learning strategy.


Zero-shot Learning via Simultaneous Generating and Learning

Neural Information Processing Systems

To overcome the absence of training data for unseen classes, conventional zero-shot learning approaches mainly train their model on seen datapoints and leverage the semantic descriptions for both seen and unseen classes. Beyond exploiting relations between classes of seen and unseen, we present a deep generative model to provide the model with experience about both seen and unseen classes. Based on the variational auto-encoder with class-specific multi-modal prior, the proposed method learns the conditional distribution of seen and unseen classes. In order to circumvent the need for samples of unseen classes, we treat the non-existing data as missing examples. That is, our network aims to find optimal unseen datapoints and model parameters, by iteratively following the generating and learning strategy.