DEEP LEARNING AND ARTIFICIAL INTELLIGENCE WITH GPU COMPUTING DRIVING HEALTHCARE
GTC Europe sees physicians, scientists, and researchers coming together for sessions on the future of AI across healthcare, pharmaceutical, and biomedical research. Hear how industry thought leaders use GPU-driven deep learning solutions to unlock the potential of evidence-based precision medicine, targeted therapeutics, and population healthcare strategies. These include everything from big 'omics and medical imaging to drug discovery and development.
HEAR HOW DEEP LEARING AND AI IS CHANGING THE HEALTHCARE INDUSTRY
This track demonstrates how leading medical professionals are leveraging deep learning to accelerate technology in healthcare. You'll discover how GPUs is driving advances in AI to enable precision medicine, improve population health management, and enhance patient care quality and outcomes. You can also get valuable, hands-on training from the NVIDIA Deep Learning Institute.
NVIDIA Deep Learning Institute
The NVIDIA Deep Learning Institute (DLI) offers hands-on training for developers, data scientists, and researchers looking to solve challenging problems with deep learning.
Join us for the following Healthcare themed labs on Tuesday, 10th October:
Image Classification with TensorFlow: Radiomics - 1p19q Chromosome Status Classification
13:00–15:00 h
Thanks to work being performed at Mayo Clinic, approaches using deep learning techniques to detect Radiomics from MRI imaging can lead to more effective treatments and yield better health outcomes for patients with brain tumors. Radiogenomics, specifically Imaging Genomics, refers to the correlation between cancer imaging features and gene expression. Imaging Genomics (Radiomics) can be used to create biomarkers that identify the genomics of a disease without the use of an invasive biopsy. The focus of this lab is detection of the 1p19q co-deletion biomarker using deep learning - specifically convolutional neural networks – using Keras and TensorFlow. What is remarkable about this research and lab is the novelty and promising results of utilizing deep learning to predict Radiomics.
Medical Image Analysis using R and MXNet
15:00–17:00 h
Convolutional neural networks (CNNs) have proven to be just as effective in visual recognition tasks involving non-visible image types as regular RGB camera imagery. One important application of these capabilities is medical image analysis, where we wish to detect features indicative of medical conditions and use them to infer patient status. In addition to processing non-visible imagery, such as CT scans and MRI, these applications often require us to process higher dimensionality imagery that may be volumetric and have a temporal component. In this lab you will use the deep learning framework MXNet to train a CNN to infer the volume of the left ventricle of the human heart from a time-series of volumetric MRI data. You will learn how to extend the canonical 2D CNN to be applied to this more complex data and how to directly predict the ventricle volume rather than generating an image classification. In addition to the standard Python API, you will also see how to use MXNet through R, which is an important data science platform in the medical research community.
Modeling Time Series Data with RNNs in Keras
17:00–19:00 h
One important area of current research is the use of deep neural networks to classify or forecast time-series data. Time-series data is produced in large volumes from sensors in a variety of application domains including Internet of Things (IoT), cyber security, data center management and medical patient care. In this lab, you will learn how to create training and testing datasets using electronic health records in HDF5 (hierarchical data format version five) and prepare datasets for use with recurrent neural networks (RNNs), which allows modeling of very complex data sequences. You will then construct a long-short term memory model (LSTM), a specific RNN architecture, using the Keras library running on top of Theano to evaluate model performance against baseline data.