Cognitive Subscore Trajectory Prediction in Alzheimer's Disease
Lev E. Givon (1), Laura J. Mariano (1), David O'Dowd (1), John M., Irvine (1), Abraham R. Schneider (1) ((1) The Charles Stark Draper, Laboratory, Inc.)

TL;DR
This paper introduces a CNN model that predicts the progression of 13 cognitive subscores in Alzheimer's patients over 36 months using MRI scans, providing detailed insights into cognitive decline.
Contribution
The study presents a novel CNN architecture capable of predicting individual cognitive subscore trajectories directly from MRI scans without manual feature extraction.
Findings
Performance comparable to existing methods using manual features
Predicts 13 subscores simultaneously over 36 months
Provides detailed cognitive decline trajectories
Abstract
Accurate diagnosis of Alzheimer's Disease (AD) entails clinical evaluation of multiple cognition metrics and biomarkers. Metrics such as the Alzheimer's Disease Assessment Scale - Cognitive test (ADAS-cog) comprise multiple subscores that quantify different aspects of a patient's cognitive state such as learning, memory, and language production/comprehension. Although computer-aided diagnostic techniques for classification of a patient's current disease state exist, they provide little insight into the relationship between changes in brain structure and different aspects of a patient's cognitive state that occur over time in AD. We have developed a Convolutional Neural Network architecture that can concurrently predict the trajectories of the 13 subscores comprised by a subject's ADAS-cog examination results from a current minimally preprocessed structural MRI scan up to 36 months from…
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Taxonomy
TopicsDementia and Cognitive Impairment Research · Medical Image Segmentation Techniques · Functional Brain Connectivity Studies
