Assessing neurophysiologic markers for training and simulation to develop expertise in complex cognitive tasks

This work explores the theoretic basis and provides empirical support for using neurophysiologic markers to provide information on a trainee's cognition to guide instruction. This serves as the basis for improving the design of simulation responsive to individual traits for training continuou...

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Main Author: Sullivan, Joseph A.
Other Authors: Darken, Rudolph
Published: Monterey, California. Naval Postgraduate School 2012
Online Access:http://hdl.handle.net/10945/10572
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spelling ndltd-nps.edu-oai-calhoun.nps.edu-10945-105722014-11-27T16:09:07Z Assessing neurophysiologic markers for training and simulation to develop expertise in complex cognitive tasks Sullivan, Joseph A. Darken, Rudolph Naval Postgraduate School Computer Science Modeling, Virtual Environments and Simulation (MOVES) This work explores the theoretic basis and provides empirical support for using neurophysiologic markers to provide information on a trainee's cognition to guide instruction. This serves as the basis for improving the design of simulation responsive to individual traits for training continuous complex cognitive tasks. Individualized instruction has been empirically proven to be vastly superior to other forms of instruction. However, current methods to design simulation that is responsive to the user have relied primarily on raw performance metrics. These metrics are often misleading and provide very little diagnostic value. For complex tasks, understanding cognitive processes is critical. Neurophysiologic markers can potentially inform instructional systems on trainees' cognition but have yet to be validated. This research developed a sample process to identify neurophysiologic markers for informing individualized instruction. Applying the process to helicopter overland navigation, a theoretic model of eye scan behavior was developed. The process and theoretic model were validated by analyzing novices and expert navigators. Predicted eye scan metrics reliably distinguished between expert and novice behavior, providing insight not available using raw performance metrics. Also, a visualization tool was developed to explore expert scan strategies. In addition to confirming expected strategies and novice expert differences, we discovered novel, unexpected strategies of expert navigators. 2012-08-22T15:32:49Z 2012-08-22T15:32:49Z 2010-09 http://hdl.handle.net/10945/10572 This publication is a work of the U.S. Government as defined in Title 17, United States Code, Section 101. As such, it is in the public domain, and under the provisions of Title 17, United States Code, Section 105, it may not be copyrighted. Monterey, California. Naval Postgraduate School
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sources NDLTD
description This work explores the theoretic basis and provides empirical support for using neurophysiologic markers to provide information on a trainee's cognition to guide instruction. This serves as the basis for improving the design of simulation responsive to individual traits for training continuous complex cognitive tasks. Individualized instruction has been empirically proven to be vastly superior to other forms of instruction. However, current methods to design simulation that is responsive to the user have relied primarily on raw performance metrics. These metrics are often misleading and provide very little diagnostic value. For complex tasks, understanding cognitive processes is critical. Neurophysiologic markers can potentially inform instructional systems on trainees' cognition but have yet to be validated. This research developed a sample process to identify neurophysiologic markers for informing individualized instruction. Applying the process to helicopter overland navigation, a theoretic model of eye scan behavior was developed. The process and theoretic model were validated by analyzing novices and expert navigators. Predicted eye scan metrics reliably distinguished between expert and novice behavior, providing insight not available using raw performance metrics. Also, a visualization tool was developed to explore expert scan strategies. In addition to confirming expected strategies and novice expert differences, we discovered novel, unexpected strategies of expert navigators.
author2 Darken, Rudolph
author_facet Darken, Rudolph
Sullivan, Joseph A.
author Sullivan, Joseph A.
spellingShingle Sullivan, Joseph A.
Assessing neurophysiologic markers for training and simulation to develop expertise in complex cognitive tasks
author_sort Sullivan, Joseph A.
title Assessing neurophysiologic markers for training and simulation to develop expertise in complex cognitive tasks
title_short Assessing neurophysiologic markers for training and simulation to develop expertise in complex cognitive tasks
title_full Assessing neurophysiologic markers for training and simulation to develop expertise in complex cognitive tasks
title_fullStr Assessing neurophysiologic markers for training and simulation to develop expertise in complex cognitive tasks
title_full_unstemmed Assessing neurophysiologic markers for training and simulation to develop expertise in complex cognitive tasks
title_sort assessing neurophysiologic markers for training and simulation to develop expertise in complex cognitive tasks
publisher Monterey, California. Naval Postgraduate School
publishDate 2012
url http://hdl.handle.net/10945/10572
work_keys_str_mv AT sullivanjosepha assessingneurophysiologicmarkersfortrainingandsimulationtodevelopexpertiseincomplexcognitivetasks
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