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A Model of Monitoring Complex Automated Systems and an Associated Training Approach

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ISAE-SUPAERO Conference paper

The 1st International Conference on Cognitive Aircraft

Systems – ICCAS

March 18-19, 2020

https://events.isae-supaero.fr/event/2

Scientific Committee

Mickaël Causse, ISAE-SUPAERO

Caroline Chanel, ISAE-SUPAERO

Jean-Charles Chaudemar, ISAE-SUPAERO

Stéphane Durand, Dassault Aviation

Bruno Patin, Dassault Aviation

Nicolas Devaux, Dassault Aviation

Jean-Louis Gueneau, Dassault Aviation

Claudine Mélan, Université Toulouse Jean-Jaurès

Jean-Paul Imbert, ENAC

Permanent link :

https://doi.org/10.34849/cfsb-t270

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ICCAS 2020 A Model of Monitoring Complex A …

A Model of Monitoring Complex Automated Systems

and an Associated Training Approach

Content

Problem.

Analysis of recent accidents and incidents have pointed to monitoring failure as a contributing factor. Challenges in monitoring are likely to increase as the complexity of automated systems in-creases, for airplanes, for UAVs, and other supervisory tasks. Improving monitoring skills though training is one component of reducing monitoring failure and this prompted our research on mon-itoring and monmon-itoring training.

Method.

In this research we develop a cognitive characterization of monitoring drawing on detailed discus-sion with pilots and on research literature. We review research on monitoring and particularly on training monitoring. Based on our characterization of monitoring, we recommend promising approaches to what should be trained and how to train this.

Characterization.

Monitoring has traditionally been approached as sequential fixation of a small number of indicators (e.g., “six pack”), in a scan pattern. Failure of monitoring is often attributed to lack of adherence to a specified scan or to lack of vigilance. This characterization does not reflect the work involved, does not reveal the extensive cognitive activity required, and does not identify promising areas for training.

Our characterization, or qualitative model, relies on cognitive and operational perspectives. We characterize monitoring as the process of building and updating an understanding of the current situation (the Situation Model), supported by appropriate task management that coordinates mon-itoring with other activities. The Situation Model draws on and may be initiated by information in a mental model, a structured mental representation in long term memory, typically a causal model of how some system works.

The Situation Model is at the center of a cycle of activities that draw on and update the Situation Model. Three broad activities organize the monitoring cycle, here described from the perspective of the Pilot Monitoring. 1) Identify what you need to know next based on the Situation Model, from recognizing a gap, a need for an updated value, an inconsistency, or a puzzle in the Situation Model. This can include recognition that the current situation is understood and attention should be turned to non-monitoring tasks. 2) Find the value of the needed information. This includes understanding how to access the information and how to interpret the values found. It includes updating the Situation Model and comparing actual and expected values. 3) Assess status and need for action. The comparison of actual and expected values feeds into status assessment, and whether/what action is needed. If a control action is needed urgently, take control and execute the action; alternatively, a needed upcoming action may become the target of monitoring on your next cycle.

Training.

This model of monitoring identifies a number of required skills, many of which are amenable to training. We reviewed training literature focused on situation assessment and awareness across a variety of dynamic and safety critical domains. Our training recommendations identify trainable skills for executing the cycle of updating and using the Situation Model and propose a structure for introducing relevant concepts and providing application and practice.

Dr BILLMAN, Dorrit (San Jose State University@NASA Ames)

;

Dr MUMAW, Randall (San Jose State University@NASA Ames)

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