Issue 10 Volume 41 May 16, 2003
Issue 10 Volume 41 May 16, 2003
Issue 10 Volume 41 May 16, 2003
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<strong>2003</strong>0033050 Army Safety Center, Fort Rucker, AL<br />
FLIGHTFAX: Army Aviation Risk-Management Information. <strong>Volume</strong> 30, Number 12<br />
Dec. 2002; <strong>16</strong> pp.; In English; Original contains color illustrations<br />
Report No.(s): AD-A4<strong>10</strong>539; No Copyright; Avail: CASI; A03, Hardcopy<br />
No abstract available.<br />
Military Aviation; Aircraft Safety<br />
<strong>2003</strong>0033921 NASA Langley Research Center, Hampton, VA, USA<br />
Evaluation of Trajectory Errors in an Automated Terminal-Area Environment<br />
Oseguera-Lohr, Rosa M.; Williams, David H.; April <strong>2003</strong>; 31 pp.; In English<br />
Contract(s)/Grant(s): RTOP 722-01-26-21<br />
Report No.(s): NASA/TM-<strong>2003</strong>-212174; NAS 1.15:212174; L-18273; No Copyright; Avail: CASI; A03, Hardcopy<br />
A piloted simulation experiment was conducted to document the trajectory errors associated with use of an airplane’s<br />
Flight Management System (FMS) in conjunction with a ground-based ATC automation system, Center-TRACON<br />
Automation System (CTAS) in the terminal area. Three different arrival procedures were compared: current-day (vectors from<br />
ATC), modified (current-day with minor updates), and data link with FMS lateral navigation. Six active airline pilots flew<br />
simulated arrivals in a fixed-base simulator. The FMS-datalink procedure resulted in the smallest time and path distance errors,<br />
indicating that use of this procedure could reduce the CTAS arrival-time prediction error by about half over the current-day<br />
procedure. Significant sources of error contributing to the arrival-time error were crosstrack errors and early speed reduction<br />
in the last 2-4 miles before the final approach fix. Pilot comments were all very positive, indicating the FMS-datalink<br />
procedure was easy to understand and use, and the increased head-down time and workload did not detract from the benefit.<br />
<strong>Issue</strong>s that need to be resolved before this method of operation would be ready for commercial use include development of<br />
procedures acceptable to controllers, better speed conformance monitoring, and FMS database procedures to support the<br />
approach transitions.<br />
Author<br />
Flight Management Systems; Air Traffıc Control; Aircraft Approach Spacing; Aircraft Guidance; Approach Control; Pilot<br />
Support Systems; Navigation Aids<br />
<strong>2003</strong>0033927 Robertson Aviation, LLC, Tempe, AZ, USA<br />
A Study of Transport Airplane Crash-Resistant Fuel Systems<br />
Jones, Lisa, Technical Monitor; Robertson, S. H.; Johnson, N. B.; Hall, D. S.; Rimson, I. J.; March 2002; 240 pp.; In English<br />
Contract(s)/Grant(s): DTFA03-98-C-000<strong>16</strong>; RTOP 728-50-<strong>10</strong>-01<br />
Report No.(s): NASA/CR-2002-211437; NAS 1.26:211437; DOT/FAA/AR-01/82; RA-00-305-FAA; Copyright; Avail: CASI;<br />
A11, Hardcopy<br />
This report presents the results of a study, funded by the Federal Aviation Administration (FAA), of transport airplane<br />
crash-resistant fuel system (CRFS). The report covers the historical studies related to aircraft crash fires and fuel containment<br />
concepts undertaken by the FAA, NASA, and the U.S. Army, which ultimately led to the current state of the art in CRFS<br />
technology. It describes the basic research, testing, field investigations and production efforts which have led to the highly<br />
successful military CRFS, which has saved many lives and reduced costs of accidents. Current CRFS technology used in<br />
transport category airplanes is defined and compared to the available state-of-the-art technology. The report provides<br />
information to the FAA and other government organizations which can help them plan their efforts to improve the state of crash<br />
fire protection in the transport airplane fleet. The report provides guidance to designers looking for information about CRFS<br />
design problems, analysis tools to use for product improvement, and a summary of current and proposed regulations for<br />
transport category airplane fuel systems.<br />
Author<br />
Transport Aircraft; Crashworthiness; Aircraft Design; Technology Utilization; Aircraft Fuel Systems<br />
<strong>2003</strong>0033943 NASA Langley Research Center, Hampton, VA, USA<br />
Evaluation of a Dispatcher’s Route Optimization Decision Aid to Avoid Aviation Weather Hazards<br />
Dorneich, Michael C.; Olofinboba, Olu; Pratt, Steve; Osborne, Dannielle; Feyereisen, Thea; Latorella, Kara; April <strong>2003</strong>;<br />
121 pp.; In English<br />
Contract(s)/Grant(s): RTOP 728-40-<strong>10</strong>-03<br />
Report No.(s): NASA/TM-<strong>2003</strong>-212172; NAS 1.15:212172; L-18271; No Copyright; Avail: CASI; A06, Hardcopy<br />
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