Situation awareness enhancement of cockpit synthetic vision system: Visualization of tunnel-in-the-sky

Author(s):  
Huang Xuelin ◽  
Wang Jiangyun ◽  
Han Liang ◽  
Ma Shidong
2005 ◽  
Author(s):  
Gloria L. Calhoun ◽  
Mark H. Draper ◽  
Michael F. Abernathy ◽  
Michael Patzek ◽  
Francisco Delgado

Author(s):  
Christopher D. Wickens ◽  
Angelia Sebok ◽  
Timothy Bagnall ◽  
Jill Kamienski

A two module computational model of situation awareness is presented. One module, characterizing stage 1 (noticing) SA is based on the SEEV model of selective attention in complex environments, and consists of components of Salience (capturing attention), Effort (inhibiting attention movement), Expectancy (for events along a channel) and Value (of attending those events). These are combined additively, and accurately predict visual scanning on the flight deck and in driving. The second module characterizing stage 2 (understanding) SA, results from the integration of noticed information, and its decay if unattended. We describe briefly the application and validation of the attention module to pilot scanning of the synthetic vision system display suite in aviation, and in more detail, the application to predicting differences in situation awareness supported by three formats of a wake vortex display, designed to alert aircraft pilots to dangers in the flight path ahead.


2004 ◽  
Author(s):  
Michael D. Byrne ◽  
Alex Kirlik ◽  
Michael D. Fleetwood ◽  
David G. Huss ◽  
Alex Kosorukoff ◽  
...  

Author(s):  
Miguel Lozano ◽  
Rafael Lucia ◽  
Fernando Barber ◽  
Fran Grimaldo ◽  
Antonio Lucas ◽  
...  

2002 ◽  
Author(s):  
Norah K. Link ◽  
Ronald V. Kruk ◽  
David McKay ◽  
Sion A. Jennings ◽  
Greg Craig

1999 ◽  
Author(s):  
Andrew K. Barrows ◽  
Keith W. Alter ◽  
Chad W. Jennings ◽  
J. D. Powell

2011 ◽  
Author(s):  
Hiroka Tsuda ◽  
Kohei Funabiki ◽  
Tomoko Iijima ◽  
Kazuho Tawada ◽  
Takashi Yoshida

Sensors ◽  
2019 ◽  
Vol 19 (17) ◽  
pp. 3802 ◽  
Author(s):  
Ahmed F. Fadhil ◽  
Raghuveer Kanneganti ◽  
Lalit Gupta ◽  
Henry Eberle ◽  
Ravi Vaidyanathan

Networked operation of unmanned air vehicles (UAVs) demands fusion of information from disparate sources for accurate flight control. In this investigation, a novel sensor fusion architecture for detecting aircraft runway and horizons as well as enhancing the awareness of surrounding terrain is introduced based on fusion of enhanced vision system (EVS) and synthetic vision system (SVS) images. EVS and SVS image fusion has yet to be implemented in real-world situations due to signal misalignment. We address this through a registration step to align EVS and SVS images. Four fusion rules combining discrete wavelet transform (DWT) sub-bands are formulated, implemented, and evaluated. The resulting procedure is tested on real EVS-SVS image pairs and pairs containing simulated turbulence. Evaluations reveal that runways and horizons can be detected accurately even in poor visibility. Furthermore, it is demonstrated that different aspects of EVS and SVS images can be emphasized by using different DWT fusion rules. The procedure is autonomous throughout landing, irrespective of weather. The fusion architecture developed in this study holds promise for incorporation into manned heads-up displays (HUDs) and UAV remote displays to assist pilots landing aircraft in poor lighting and varying weather. The algorithm also provides a basis for rule selection in other signal fusion applications.


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