10 research outputs found
An Analysis of Displays for Probabilistic Robotic Mission Verification Results
© Springer International Publishing Switzerland 2017.Proceedings of the AHFE 2016 International Conference on Human Factors in Robots and Unmanned Systems, July 27-31, 2016, Walt Disney World®, Florida.DOI: 10.1007/978-3-319-41959-6An approach for the verification of autonomous behavior-based robotic missions has been developed in a collaborative effort between Fordham University and Georgia Tech. This paper addresses the step after verification, how to present this information to users. The verification of robotic missions is inherently probabilistic, opening the possibility of misinterpretation by operators. A human study was performed to test three different displays (numeric, graphic, and symbolic) for summarizing the verification results. The displays varied by format and specificity. Participants made decisions about high-risk robotic missions using a prototype interface. Consistent with previous work, the type of display had no effect. The displays did not reduce the time participants took compared to a control group with no summary, but did improve the accuracy of their decisions. Participants showed a strong preference for more specific data, heavily using the full verification results. Based on these results, a different display paradigm is suggested
Using multiple cognitive task analysis methods for supervisory control interface design in high-throughput biological screening processes
Emergency department status boards: user-evolved artefacts for inter- and intra-group coordination
Deep System Knowledge Required: Revisiting UCD Contribution in the Design of Complex Command and Control Systems
Part 9: Design Principles for Safety/Critical SystemsInternational audienceCommand and control systems centralize information from multiple underlying systems to support operators in the performance of their mission. Beyond the mission itself (that may be complex), operators must also ensure the correct functioning of these systems (often called platform). Platform systems (e.g. engines or electric system) may be very different from each other and exhibit a large number of functional states. When applied to the design of command control systems, User Centered Design methods support understanding and capturing operators’ needs to perform the mission, as well as to propose solutions to design usable mission-related user interfaces. However, user interfaces for platform management need to present and organize information about the underlying complex systems. Understanding those systems and abstracting away information about their behavior (so that operators can manage them) requires deep knowledge beyond UI/UX designers and UCD methods experts. In this paper, we propose a system-centered process that would complement UCD approaches for the design of command and control systems. That process takes as input the detailed functioning of underlying systems and provides abstract and structured information to inform UCD methods. Beyond supporting usability property, the integrated process supports reliability and safety properties that UCD approaches usually overlook. We present how the proposed process has been applied for the design of a large civil commercial aircraft warning system and show generalizability to other domains