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Principal Investigator  
Principal Investigator's Name: Usama Pervaiz
Institution: 3 Billion Pairs Genetic
Department: Computational Genomics
Country:
Proposed Analysis: We are proposing data integration across multiple modalities (e.g., imaging, genetics, clinical data) to bridge the gap in our understanding of Alzheimer’s disease diagnosis using advanced machine-learning algorithms. Specifically, we will use machine learning to integrally analyze MRI brain images, genetic (SNPs), and clinical test data to classify and understand patients with Alzheimer’s disease and mild cognitive impairment. In terms of analysis, we will use variational auto-encoders and convolutional neural networks to extract interpretable features from genetics and imaging data respectively. We will then use these multi-modality features to distinguish the control group from Alzheimer's subjects. Our proposed approach is comprehensive and unique as it plans to use multi-model data and a suite of advanced machine learning techniques to jointly identify brain areas, SNPs, and other clinical features that is predictive of Alzheimer's disease.
Additional Investigators  
Investigator's Name: Gabor Soter
Proposed Analysis: We are proposing data integration across multiple modalities (e.g., imaging, genetics, clinical data) to bridge the gap in our understanding of Alzheimer’s disease diagnosis using advanced machine-learning algorithms. Specifically, we will use machine learning to integrally analyze MRI brain images, genetic (SNPs), and clinical test data to classify and understand patients with Alzheimer’s disease and mild cognitive impairment. In terms of analysis, we will use variational auto-encoders and convolutional neural networks to extract interpretable features from genetics and imaging data respectively. We will then use these multi-modality features to distinguish the control group from Alzheimer's subjects. Our proposed approach is comprehensive and unique as it plans to use multi-model data and a suite of advanced machine learning techniques to jointly identify brain areas, SNPs, and other clinical features that is predictive of Alzheimer's disease.