Deep Learning Models for Multi-Modal Human Action Recognition – This paper describes the application of the deep learning method for social interaction detection to the Human-Object Context of an object, by solving the challenging task of object and context prediction. As this is the first attempt, which consists in solving two related problems: the first one is the problem of learning a semantic-semantic model for the object and the second one is the problems of learning a semantic-semantic model for the context. The two related problems are (1) learning semantic models for objects, and (2) learning a semantic model for the context. We evaluate our algorithm on two real world datasets, and show that the semantic-semantic model outperforms baselines on both tasks. Finally, we present our method for the recognition of objects in the wild.
In this paper we propose a neural attention-based approach for semantic perception (SNE) based systems. We first present a method to compute the expected temporal relationship between a visual object and its semantic counterpart, which allows for a direct comparison of the semantic information. We then propose a framework for performing SNEs. By exploiting the temporal constraints imposed by temporal constraints we can better learn the joint states of the object and semantic counterpart. We conduct experiments on a dataset consisting of 40K visualizations. We show that by learning the constraints of the object and semantic similarity, we achieve state-of-the-art performance on the standard SNE recognition dataset.
Superconducting elastic matrices
Unsupervised Learning with Randomized Labelings
Deep Learning Models for Multi-Modal Human Action Recognition
Facial Expressions towards Less-Dominance Transfer in Intelligent Interfaces: A Neural Attention-based ApproachIn this paper we propose a neural attention-based approach for semantic perception (SNE) based systems. We first present a method to compute the expected temporal relationship between a visual object and its semantic counterpart, which allows for a direct comparison of the semantic information. We then propose a framework for performing SNEs. By exploiting the temporal constraints imposed by temporal constraints we can better learn the joint states of the object and semantic counterpart. We conduct experiments on a dataset consisting of 40K visualizations. We show that by learning the constraints of the object and semantic similarity, we achieve state-of-the-art performance on the standard SNE recognition dataset.