Title :
Using vision system technologies to enable operational improvements for low visibility approach and landing operations
Author :
Kramer, Lynda J. ; Ellis, Kyle K. E. ; Bailey, Randall E. ; Williams, Steven P. ; Severance, Kurt ; Le Vie, Lisa R. ; Comstock, James R.
Author_Institution :
NASA Langley Res. Center, Hampton, VA, USA
Abstract :
Flight deck-based vision systems, such as Synthetic and Enhanced Vision System (SEVS) technologies, have the potential to provide additional margins of safety for aircrew performance and enable the implementation of operational improvements for low visibility surface, arrival, and departure operations in the terminal environment with equivalent efficiency to visual operations. To achieve this potential, research is required for effective technology development and implementation based upon human factors design and regulatory guidance. This research supports the introduction and use of Synthetic Vision Systems and Enhanced Flight Vision Systems (SVS/EFVS) as advanced cockpit vision technologies in Next Generation Air Transportation System (NextGen) operations. Twelve air transport-rated crews participated in a motion-base simulation experiment to evaluate the use of SVS/EFVS in NextGen low visibility approach and landing operations. Three monochromatic, collimated head-up display (HUD) concepts (conventional HUD, SVS HUD, and EFVS HUD) and two color head-down primary flight display (PFD) concepts (conventional PFD, SVS PFD) were evaluated in a simulated NextGen Chicago O´Hare terminal environment. Additionally, the instrument approach type (no offset, 3 degree offset, 15 degree offset) was experimentally varied to test the efficacy of the HUD concepts for offset approach operations. The data showed that touchdown landing performance were excellent regardless of SEVS concept or type of offset instrument approach being flown. Subjective assessments of mental workload and situation awareness indicated that making offset approaches in low visibility conditions with an EFVS HUD or SVS HUD may be feasible.
Keywords :
aerospace computing; aerospace simulation; aircraft displays; computer vision; head-up displays; human factors; HUD concepts; NextGen operations; PFD concepts; SEVS; SVS-EFVS; advanced cockpit vision technology; air transport-rated crews; aircrew performance; arrival operations; color head-down primary flight display; departure operations; enhanced vision system technology; flight deck-based vision systems; human factors design; instrument approach type; landing operations; low visibility approach; low visibility surface; mental workload subjective assessments; monochromatic collimated head-up display; motion-base simulation experiment; next generation air transportation system; offset instrument approach; regulatory guidance; simulated NextGen Chicago O´Hare terminal environment; situation awareness; synthetic vision system; touchdown landing performance; Aircraft navigation; Databases; Instruments; Machine vision; NASA; Standards; Visualization;
Conference_Titel :
Digital Avionics Systems Conference (DASC), 2014 IEEE/AIAA 33rd
Conference_Location :
Colorado Springs, CO
Print_ISBN :
978-1-4799-5002-7
DOI :
10.1109/DASC.2014.6979422