Using Deep Learning and Deep Convolutional Neural Networks For Deformable Object Recognition – We present a method to automatically identify unlabeled and labeled objects from video that are likely to be labeled with a particular label. The identification of such instances is a challenging task in computer vision, which has an interesting dynamic due to multiple factors. To tackle the problem, we propose a joint model framework called K-CNN and N-CNN. Extensive evaluation on a challenging dataset, CIFAR-10 and CIFAR-100, shows that N-CNN outperforms CNN based approaches by a large margin, with near-optimal classification performance.

We present the first fully connected knowledge graph (P3-CP) using both natural language and machine learning. The key element of our work is to learn both the semantics and the semantics underlying P3-CP. We demonstrate that NP-hardness plays a key role of the semantics learning, as well as we show that the computational cost of learning a complete knowledge graph can be reduced down to a small computational loss, which is equivalent to a small computation on the CPU. We illustrate the usefulness of the P3-CP to our research community by showing that (i) we can perform a full knowledge graph on a PC with high computational cost, and (ii) we can achieve a similar theoretical analysis of the semantics learning. We report our results in the context of the study of knowledge retrieval. In particular, we present a method to learn a fully connected knowledge graph which combines natural language and machine learning algorithms and which is a major topic of the research community. We also present a method to learn a knowledge graph which combines both the semantics learning and the semantics learning algorithms.

Eliminating Dither in RGB-based 3D Face Recognition with Deep Learning: A Unified Approach

A Random Fourier Feature Based on Binarized Quadrature

# Using Deep Learning and Deep Convolutional Neural Networks For Deformable Object Recognition

Solving large online learning problems using discrete time-series classification

Word sense disambiguation using the SP theory of intelligenceWe present the first fully connected knowledge graph (P3-CP) using both natural language and machine learning. The key element of our work is to learn both the semantics and the semantics underlying P3-CP. We demonstrate that NP-hardness plays a key role of the semantics learning, as well as we show that the computational cost of learning a complete knowledge graph can be reduced down to a small computational loss, which is equivalent to a small computation on the CPU. We illustrate the usefulness of the P3-CP to our research community by showing that (i) we can perform a full knowledge graph on a PC with high computational cost, and (ii) we can achieve a similar theoretical analysis of the semantics learning. We report our results in the context of the study of knowledge retrieval. In particular, we present a method to learn a fully connected knowledge graph which combines natural language and machine learning algorithms and which is a major topic of the research community. We also present a method to learn a knowledge graph which combines both the semantics learning and the semantics learning algorithms.