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Intro
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Outline
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Challenge: When Multiple Factors Influence Judgements
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Two Explanations of the Same Results
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Task effects, decision mechanisms, response blases...
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and the problem of making observations after the interactions have been completed
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BOLD Imaging: Promise and Challenges
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Identify key components of processing models
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Localize components based on empirical literature
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Determine Pattern of Effective Connectivity
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Two intuitions about cause and effect
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Granger Causation: Implementing Wiener's definition of causality
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Implementation: Prediction by lagged vector autoregression model (VAR)
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Critical assumptions requirements of classical Granger causation
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GPS: Implementing Granger's Assumptions with Integrity
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Imaging Considerations
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Identifying Rols: 3. Eliminate redundant ROis based on timeseries comparison
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Identifying Rols: 3. Define ROI around centroid based on timeseries comparison
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Prediction and the Stationarity Problem
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Kalman Filter: Model, Predict, Evaluate, Update
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Measuring Granger Causation
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Data Reduction Through Graph Theory
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Afferent/Efferent Relationship between two
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Comparison between experimental conditions
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GPS: Our processing stream to automate the Granger Analysis of MR-constrained MEG/EEG data
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Neural Decoding: Using the same data to probe representation
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Challenges and Opportunities
Description:
Explore a comprehensive lecture on large-scale high temporal resolution effective connectivity analysis in MEG and the challenges of inference. Delve into the complexities of analyzing multiple influencing factors in judgments and the limitations of post-interaction observations. Examine BOLD imaging's potential and challenges in identifying key processing components and localizing them based on empirical literature. Learn about Granger Causation and its implementation through lagged vector autoregression models, as well as the critical assumptions and requirements of classical Granger causation. Discover the GPS method for implementing Granger's assumptions with integrity, including imaging considerations and ROI identification techniques. Investigate the stationarity problem in prediction and the application of Kalman filters. Study data reduction through graph theory and the comparison of experimental conditions. Gain insights into neural decoding techniques using the same data to probe representation. Conclude by addressing the challenges and opportunities in this field of neuroscience research. Read more

Large Scale High Temporal Resolution Effective Connectivity Analysis

MITCBMM
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