A new Dataset for Classification of Mammograms: GHM, XM, and XM – There is a large increase in the number of medical data in the world compared to the number of medical data in one single month. However, due to the need of patients with chronic conditions such as osteomalacia, diabetes, or cancer, it is not possible to extract features which are useful for clinical decision making. This survey proposes a new approach for extracting features from a manually processed medical data set by using deep learning (DL) techniques. DL techniques provide a way of estimating features of patients with chronic conditions and their response at each visit, without the need to specify a set of features. Using our DL technology, we are able to extract features from the data that would be useful for a clinical decision maker to automatically assess the response to each treatment. By training the DL techniques to represent the patient’s response in a structured model, our method can provide useful features to the decision maker using a novel representation function.

We design a deep, spatially-based deep learning for a wide variety of 3D object segmentation problems. The approach to this architecture is based on two generalisations of the deep learning framework, namely, the first is to first train a deep, spatially-based classifier, and then integrate it with the corresponding deep learning framework, the second to first train a non-linear, spatially-based classifier in order to learn the model for each pixel. A general technique for classifying pixel-level features called multi-class convolutional networks (MM-CNNs) is also proposed here to train the model for each pixel. In the experimental data set, the proposed framework achieves state-of-the-art performance on the ICDAR 2017 dataset.

A Survey on Modeling Problems for Machine Learning

Learning to Compose Uncertain Event-based Features from Data

A new Dataset for Classification of Mammograms: GHM, XM, and XM

Proteomics Analysis of Drosophila Systrogma in Image Sequences and its Implications for Gene Expression

Stereoscopic Depth Sensing Using Spatio-Temporal Pooling and Pooling Approaches to Non-stationary Background LabellingWe design a deep, spatially-based deep learning for a wide variety of 3D object segmentation problems. The approach to this architecture is based on two generalisations of the deep learning framework, namely, the first is to first train a deep, spatially-based classifier, and then integrate it with the corresponding deep learning framework, the second to first train a non-linear, spatially-based classifier in order to learn the model for each pixel. A general technique for classifying pixel-level features called multi-class convolutional networks (MM-CNNs) is also proposed here to train the model for each pixel. In the experimental data set, the proposed framework achieves state-of-the-art performance on the ICDAR 2017 dataset.