SHM (Structural Health Monitoring) technique for monitoring aircraft structural health and damage, EHM (Engine Health Monitoring) for monitoring aircraft engine performance, and APM (Application Performance Management) is used for each function. APMS (Airplane Performance Monitoring System) is a pro...
SHM (Structural Health Monitoring) technique for monitoring aircraft structural health and damage, EHM (Engine Health Monitoring) for monitoring aircraft engine performance, and APM (Application Performance Management) is used for each function. APMS (Airplane Performance Monitoring System) is a program that comprehensively applies these techniques to identify the difference between the performance manual provided by the manufacturer and the actual fuel mileage of the aircraft and reflect it in the flight plan. The main purpose of using APMS is to understand the performance of each aircraft, to plan and execute flights in an optimal way, and consequently to reduce fuel consumption. First, it is to check the fuel efficiency trend of each aircraft, check the correlation between the maintenance work performed and the fuel mileage, find the cause of the fuel mileage increase/decrease, and take appropriate measures in response. Second, it is to find the cause of fuel mileage degradation in detail by checking the trends by engine performance and fuselage drag effect. Third, the APMS is to be used in making maintenance work decisions. Through APMS, aircraft with below average fuel mileage are identified, the cause of fuel mileage degradation is identified, and appropriate corrective actions are determined. Fourth, APMS data is used to analyze the economic analysis of equipment installation investment. The cost can be easily calculated as the equipment installation cost, but the benefit is fuel efficiency improvement, and the only way to check this is the manufacturer's theory. Therefore, verifying the effect after installation and verifying the economic analysis is to secure the appropriateness of the investment. Through this, proper investment in fuel efficiency improvement equipment will be made, and fuel efficiency will be improved.
SHM (Structural Health Monitoring) technique for monitoring aircraft structural health and damage, EHM (Engine Health Monitoring) for monitoring aircraft engine performance, and APM (Application Performance Management) is used for each function. APMS (Airplane Performance Monitoring System) is a program that comprehensively applies these techniques to identify the difference between the performance manual provided by the manufacturer and the actual fuel mileage of the aircraft and reflect it in the flight plan. The main purpose of using APMS is to understand the performance of each aircraft, to plan and execute flights in an optimal way, and consequently to reduce fuel consumption. First, it is to check the fuel efficiency trend of each aircraft, check the correlation between the maintenance work performed and the fuel mileage, find the cause of the fuel mileage increase/decrease, and take appropriate measures in response. Second, it is to find the cause of fuel mileage degradation in detail by checking the trends by engine performance and fuselage drag effect. Third, the APMS is to be used in making maintenance work decisions. Through APMS, aircraft with below average fuel mileage are identified, the cause of fuel mileage degradation is identified, and appropriate corrective actions are determined. Fourth, APMS data is used to analyze the economic analysis of equipment installation investment. The cost can be easily calculated as the equipment installation cost, but the benefit is fuel efficiency improvement, and the only way to check this is the manufacturer's theory. Therefore, verifying the effect after installation and verifying the economic analysis is to secure the appropriateness of the investment. Through this, proper investment in fuel efficiency improvement equipment will be made, and fuel efficiency will be improved.
Airbus, "Getting to Grips with Aircraft？Performance Monitoring", Airbus, Blagnac,？2002.
openairlines.com, "Three benefits of air craft？performance monitoring to improve your？operations", Available: https://blog.openairlines.com/three-benefits-of-aircraft-performance-monitoring-to-improve-your-operations,？accessed on 21 June, 2023.
Airbus, "Getting Hands on Experience with？Aerodynamic Deterioration", Airbus, Blagnac, 2001.
Krajcek, K., Nikolic, D., and Domitrovic, A.,？"Aircraft performance monitoring from flight？data", Tehnicki Vjesnik, 22(5), 2015, pp.？1337-1344.
Anderson, D., "Cruise Performance Monitoring", Aero. The Web version (2006), 24. Available: https://www.boeing.com/commercial/aeromagazine/articles/qtr_4_06/article_02_1.html, accessed on 21 June. 2023.
storkjet.com, "5 Popular actions on how to？improve APM and save fuel", Available:？https://storkjet.com/storkjet-tip-4-5-errors-in-apm/, accessed June 21. 2023.
Jang, S. W., Chang, H. S., and Yoo, K. E.,？"Airline's approach to enhance fuel efficiency",？Journal of the Aviation Management Society？of Korea, 16(6), 2018, pp.19-27.
Brian Gleason, "Blended Winglets - One？Operator's Perspective", Southwest Airlines,？Available: https://www.smartcockpit.com/docs/Blended_Winglets.pdf, accessed on 21 June.？2023.
Jang, S. W., Lee, Y. J., Kim, K. W., Yoo, J.？L., and Yoo, K. E., "Verification of winglet？effect and economic analysis using actual？flight of A321 sharklet model", Journal of？the Korean Society for Aeronautical & Space？Sciences, 49(4), 2021, pp.273-279.
Jang, S. W., Cho, Y. H., Yoo, J. L., and？Yoo, K. E., "Performance improvement？package application effect analysis", Journal？of the Korean Society for Aviation and？Aeronautics, 29(3), 2021, pp.44-51.
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