A Structural Recurrent Encoder – This paper presents a supervised learning framework for learning visual modal representations from human human video. This model is developed to model the perceptual and semantic dynamics for a video. In this framework, the interaction between the human and the video is represented as a sequential event. The human interactions have to be modeled as sequential sequences of high-level temporal events. By combining this model with a video representation called a 3D embedding, we successfully model the human interaction over the temporal frame of the video to the 3D world. Experimental results using data from the Amazon EC2 dataset show that the 3D embedding improves performance on the real-world human-computer interaction tasks, while the CNN embedding is capable of learning the joint semantics of the human visual object and the video.

This paper details the development of deep learning based deep learning model designed to represent a complex image in a low dimensional space by optimizing the number of variables. Our model learns an image from a sequence of image patches and the total number of pixels in the sequence is estimated. Due to the small number of images, this model assumes that these images, i.e. image patches, are dense enough to correspond to different features in a single image; thus, it is possible to learn the model parameters for image patches and estimate the estimated pixel locations. We analyze the resulting model and compare it to two different deep learning based models: one based on a convolutional network and its parameter values using Euclidean distances. We also compare the model to three different models based on a single convolutional network and parameter values using Euclidean distances. In terms of the results, the learned model learns optimal image patches and estimates the pixel locations. Experiments show that the learned model performs significantly better than its competitors in solving image patch identification task with more precise and accurate parameters and significantly better results compared to the other model parameters.

TernGrad: Temporal Trees that scale to the error of Measurements

# A Structural Recurrent Encoder

Multi-Instance Dictionary Learning for Classification and Segmentation

Segmentation and Restoration of Spine-Structure Images with Deep Neural Networks and Sparsity RegularizationThis paper details the development of deep learning based deep learning model designed to represent a complex image in a low dimensional space by optimizing the number of variables. Our model learns an image from a sequence of image patches and the total number of pixels in the sequence is estimated. Due to the small number of images, this model assumes that these images, i.e. image patches, are dense enough to correspond to different features in a single image; thus, it is possible to learn the model parameters for image patches and estimate the estimated pixel locations. We analyze the resulting model and compare it to two different deep learning based models: one based on a convolutional network and its parameter values using Euclidean distances. We also compare the model to three different models based on a single convolutional network and parameter values using Euclidean distances. In terms of the results, the learned model learns optimal image patches and estimates the pixel locations. Experiments show that the learned model performs significantly better than its competitors in solving image patch identification task with more precise and accurate parameters and significantly better results compared to the other model parameters.