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Pilot-induced oscillation prediction with three levels of simulation motion displacement
Author(s) -
Jeffery A. Schroeder,
William Chung,
Duc Trong Tran,
Soren Laforce,
Norman Bengford
Publication year - 1998
Publication title -
nasa sti repository (national aeronautics and space administration)
Language(s) - English
Resource type - Conference proceedings
DOI - 10.2514/6.1998-4333
Subject(s) - oscillation (cell signaling) , displacement (psychology) , computer science , motion (physics) , control theory (sociology) , artificial intelligence , psychology , control (management) , psychotherapist , genetics , biology
Simulator motion platform characteristics were examined to determine if the amount of motion affects pilot-induced oscillation (PIO) prediction. Five test pilots evaluated how susceptible 18 different sets of pitch dynamics were to PIOs with three different levels of simulation motion platform displacement: large, small, and none. The pitch dynamics were those of a previous in-flight experiment, some of which elicited PIOs. These in-flight results served as truth data for the simulation. As such, the in-flight experiment was replicated as much as possible. Objective and subjective data were collected and analyzed. With large motion, PIO and handling qualities ratings matched the flight data more closely than did small motion or no motion. Also, regardless of the aircraft dynamics, large motion increased pilot confidence in assigning handling qualities ratings, reduced safety pilot trips, and lowered touchdown velocities. While both large and small motion provided a pitch rate cue of high fidelity, only large motion presented the pilot with a high fidelity vertical acceleration cue.

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