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Jin, Yan
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Jin, Yan
author Williams, Edwin
Jin, Yan
spellingShingle Williams, Edwin
Jin, Yan
Annual of Navigation
Dynamic Probability Fields for Risk Assessment and Guidance Solutions
Earth-Surface Processes
author_sort williams, edwin
spelling Williams, Edwin Jin, Yan 2300-6633 1640-8632 Walter de Gruyter GmbH Earth-Surface Processes http://dx.doi.org/10.1515/aon-2019-0004 <jats:title>Abstract</jats:title> <jats:p>Standard Guidance, Navigation, and Control (GN&amp;C) systems take state data from a navigation system and create a trajectory that minimizes some a-priori determined cost function. These cost functions are typically time, money, weight, or any general physically realizable quantity. Previous work has been done to show the effectiveness of using risk as the sole objective function. However, this previous work used Poisson distributions and historical estimates to achieve this goal. In this paper we present the situation-risk assessment (SRA) method contained within the intelligent situation assessment and collision avoidance (iSC) platform. The SRA method uses data clustering, and pattern recognition to create a historically based estimate of guidance probabilities. These are then used in data driven, dynamic models to create the future probability fields of the situation. This probability, along with the other agent’s goals and objectives, are then used to create a minimum risk guidance solution in the nautical environment.</jats:p> Dynamic Probability Fields for Risk Assessment and Guidance Solutions Annual of Navigation
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title Dynamic Probability Fields for Risk Assessment and Guidance Solutions
title_unstemmed Dynamic Probability Fields for Risk Assessment and Guidance Solutions
title_full Dynamic Probability Fields for Risk Assessment and Guidance Solutions
title_fullStr Dynamic Probability Fields for Risk Assessment and Guidance Solutions
title_full_unstemmed Dynamic Probability Fields for Risk Assessment and Guidance Solutions
title_short Dynamic Probability Fields for Risk Assessment and Guidance Solutions
title_sort dynamic probability fields for risk assessment and guidance solutions
topic Earth-Surface Processes
url http://dx.doi.org/10.1515/aon-2019-0004
publishDate 2019
physical 33-45
description <jats:title>Abstract</jats:title> <jats:p>Standard Guidance, Navigation, and Control (GN&amp;C) systems take state data from a navigation system and create a trajectory that minimizes some a-priori determined cost function. These cost functions are typically time, money, weight, or any general physically realizable quantity. Previous work has been done to show the effectiveness of using risk as the sole objective function. However, this previous work used Poisson distributions and historical estimates to achieve this goal. In this paper we present the situation-risk assessment (SRA) method contained within the intelligent situation assessment and collision avoidance (iSC) platform. The SRA method uses data clustering, and pattern recognition to create a historically based estimate of guidance probabilities. These are then used in data driven, dynamic models to create the future probability fields of the situation. This probability, along with the other agent’s goals and objectives, are then used to create a minimum risk guidance solution in the nautical environment.</jats:p>
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description <jats:title>Abstract</jats:title> <jats:p>Standard Guidance, Navigation, and Control (GN&amp;C) systems take state data from a navigation system and create a trajectory that minimizes some a-priori determined cost function. These cost functions are typically time, money, weight, or any general physically realizable quantity. Previous work has been done to show the effectiveness of using risk as the sole objective function. However, this previous work used Poisson distributions and historical estimates to achieve this goal. In this paper we present the situation-risk assessment (SRA) method contained within the intelligent situation assessment and collision avoidance (iSC) platform. The SRA method uses data clustering, and pattern recognition to create a historically based estimate of guidance probabilities. These are then used in data driven, dynamic models to create the future probability fields of the situation. This probability, along with the other agent’s goals and objectives, are then used to create a minimum risk guidance solution in the nautical environment.</jats:p>
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spelling Williams, Edwin Jin, Yan 2300-6633 1640-8632 Walter de Gruyter GmbH Earth-Surface Processes http://dx.doi.org/10.1515/aon-2019-0004 <jats:title>Abstract</jats:title> <jats:p>Standard Guidance, Navigation, and Control (GN&amp;C) systems take state data from a navigation system and create a trajectory that minimizes some a-priori determined cost function. These cost functions are typically time, money, weight, or any general physically realizable quantity. Previous work has been done to show the effectiveness of using risk as the sole objective function. However, this previous work used Poisson distributions and historical estimates to achieve this goal. In this paper we present the situation-risk assessment (SRA) method contained within the intelligent situation assessment and collision avoidance (iSC) platform. The SRA method uses data clustering, and pattern recognition to create a historically based estimate of guidance probabilities. These are then used in data driven, dynamic models to create the future probability fields of the situation. This probability, along with the other agent’s goals and objectives, are then used to create a minimum risk guidance solution in the nautical environment.</jats:p> Dynamic Probability Fields for Risk Assessment and Guidance Solutions Annual of Navigation
spellingShingle Williams, Edwin, Jin, Yan, Annual of Navigation, Dynamic Probability Fields for Risk Assessment and Guidance Solutions, Earth-Surface Processes
title Dynamic Probability Fields for Risk Assessment and Guidance Solutions
title_full Dynamic Probability Fields for Risk Assessment and Guidance Solutions
title_fullStr Dynamic Probability Fields for Risk Assessment and Guidance Solutions
title_full_unstemmed Dynamic Probability Fields for Risk Assessment and Guidance Solutions
title_short Dynamic Probability Fields for Risk Assessment and Guidance Solutions
title_sort dynamic probability fields for risk assessment and guidance solutions
title_unstemmed Dynamic Probability Fields for Risk Assessment and Guidance Solutions
topic Earth-Surface Processes
url http://dx.doi.org/10.1515/aon-2019-0004