ISTANB UL TECHNICAL UNIVERSITY FACULTY OF AERONAUTICS AND ASTRONAUTICS IM PROVING LANDING PROCEDURES OF COMMERCIAL AIRCRAFT FOR REDUCING FUEL AND TIME CONSUMPTION GRADUATION PROJECT Serdar KESİK Department of Aeronautical Engineering Thesis Advisor: Prof. Dr. Elbrus CAFEROV JUNE, 2018 i ISTANBUL TECHNICAL UNIVERSITY FACULTY OF AERONAUTICS AND ASTRONAUTICS IMPROVING LANDING PROCEDURES OF COMMERCIAL AIRCRAFT FOR REDUCING FUEL AND TIME CONSUMPTION GRADUATION PROJECT Serdar KESİK (110130123) Department of Aeronautıcal Engineering Thesis Advisor: Prof. Dr. Elbrus CAFEROV JUNE, 2018 ii Serdar KESİK,student of ITU Faculty of Aeronautics and Astronautics student ID 110130123, successfully defended the graduation entitled “IMPROVING LANDING PROCEDURES OF COMMERCIAL AIRCRAFT FOR REDUCING FUEL AND TIME CONSUMPTION”, which he/she prepared after fulfilling the requirements specified in the associated legislations, before the jury whose signatures are below. Thesis Advisor : Prof. Dr. Elbrus CAFEROV .............................. İstanbul Technical University Jury Members : Doç.Dr.Aytaç ARIKOĞLU ............................. İstanbul Technical University Dr.Öğr.Üye. Hayri ACAR .............................. İstanbul Technical University Date of Submission : 28 May 2018 Date of Defense : 11 June 2018 iii To best pilot I have ever met in the world who inspires me, Sully Sullenberger, iv FOREWORD I would like to thank you my supervisor Prof.Dr. Elbrus Caferov who is Senior Prof. in five country for his great help, guidance and encouragement during thesis. I am grateful to one of my best friends Kerem Hafızoğlu to support me about setting up necessary programs for my graduation project. June 2018 Serdar KESİK v vi TABLE OF CONTENTS Page FOREWORD .................................................................................................... v TABLE OF CONTENTS ............................................................................... vii ABBREVIATIONS ..................................................................................... viviii LIST OF TABLES ......................................................................................... ixx LIST OF FIGURES .......................................................................................... x SUMMARY ................................................................................................... xxii ÖZET ............................................................................................................. xxii 1. INTRODUCTION ........................................................................................ 1 1.1 Purpose of Thesis ...................................................................................... 1 1.2 Literature Review ..................................................................................... 2 1.2.1 Landing Systems Examination and Continuous Approach .............. 2 1.2.2 New Airport Design for Better Landing ........................................... 9 1.2.3 Project Questions for Next Step ....................................................... 11 1.3 Hypothesis .............................................................................................. 13 2. PROJECT METHODS .............................................................................. 13 2.1 Using Programs ....................................................................................... 13 2.2 Process .................................................................................................... 14 3. IMPROVING IDEA AND ANALYSIS .................................................... 16 3.1 Training Flight ........................................................................................ 18 3.2 Circular Runway Investigation ............................................................... 22 3.3 Flight Analysis ........................................................................................ 36 4. CONCLUSIONS AND RECOMMENDATIONS ................................... 48 4.1 Fuel Consumption ................................................................................... 50 4.2 Timing ..................................................................................................... 52 4.3 General Examination of Landing Procedures and Circular Runway ...... 52 4.4 Comparing Data ..................................................................................... 56 4.4.1 Comparing Different Landing Procedures....................................... 56 4.4.2 Comparing Fuel Flow ...................................................................... 57 4.5 Air Traffic Solution ................................................................................ 61 REFERENCES ............................................................................................... 68 APPENDICES ................................................................................................70 CURRICULUM VITAE ................................................................................ 74 vii ABBREVIATIONS AOM : Aircraft Operations Manual AP : Auto Pilot AT : Auto Throttle ATC : Air Traffic Controller ATM : Air Traffic Management CCDA : Circular Continuous Descent Approach CDA : Continuous Descent Approach CDU : Computer Display Unit DME : Distance Measurement Equipment EUROCONTROL : Organisati on for the Safety of Air Navigation FAA : Federal Avi ati on Ad mi nistration FMC : Flight Management Computer Fpm : Feet per minute FSX : Flight Simulator X Ft : Feet GP : Ground Path GPS : Global Position System GS : Ground Speed Hr : Hour ICAO : International Civil Aviation Organization ILS : Instrutment Landing System Kt : Knot MCP : Mode Control Panel MFD : Multi Functional Display ND : Navigation Display NDB : Non-Directional Beacon PFD : Primary Flight Display SIDs : Standard Instrument Departure STARs : RoutesStandard Arrival Routes VOR : Very High Frequence Omni-Directional Range viii LIST OF TABLES Page Table 1.1 : Fuel and Flight time savings in the terminal airspace………………......4 Table 3.1 : Obtained data…………………………………………………………..18 Table 3.2 : Comparison of the runway cross section parameters………………......29 Table A.1 : Changing of takeoff speed with temperature and weight for flap 1…...71 Table A.2 : Changing of take off speed with temperature and weight for flap 5…..71 Table A.3 : Changing of %N1 with tempetature and airport altitude………………71 Table B.1 : Maximum Flap Deployment Speeds…………………………………...72 Table B.2 : Climb Profile…………………………………………………………...72 Table B.3 : Standard Climb Rate…………………………………………………...72 Table B.4 : Descent Rate…………………………………………………………...72 Table B.5 : Approach/Landing Speeds……………………………………………..72 Table C.1 : Approach and landing speeds 130,000 Ibs weight aircraft…………….73 Table C.2 : Approach and landing speeds 142,000 Ibs weight aircraft…………….73 ix LIST OF FIGURES Page Figure 1.1 : Descent profils…………………………………………………………..2 Figure 1.2 : Average fuel and flight time saved at the four airports…………………4 Figure 1.3 : Flaw of continuous approach…………………………………………...4 Figure 1.4 : İstanbul Atatürk airport STARs chart…………………………………..5 Figure 1.5 : İstanbul Atatürk airport arrival aircraft…………………………………6 Figure 1.6 : İstanbul Atatürk airport arrival aircraft…………………………………9 Figure 1.7 : Desing of Circular Runway …………………………………………..10 Figure 1.8 : Circular Runway and aircraft………………………………………….10 Figure 1.9 : Waypoint Adjustment…………………………………………………10 Figure 1.10 : Circular Continuous Descent Approach……………………………...10 Figure 1.11 : Distance for CDA landing…………………………………………....10 Figure 1.12 : Circular runway during landing……………………………………...12 Figure 2.1 : Flight Simulator X………………………………………………..........13 Figure 2.2 : Delta Virtual Airlines ...……………………………………………….14 Figure 2.3 : Turkish Virtual Airlines aircraft……………………………………….15 Figure 3.1 : Whole route……………………………………………………………19 Figure 3.2 : Zoom out whole route…………………………………………………20 Figure 3.3 : Departıre Airport – NICE Côte d'Azur International Airport - LFMN..20 Figure 3.4 : Arrival Airport – İSTANBUL Atatürk Airport - LTBA……………....21 Figure 3.5 : Nice - İstanbul flight graphic……………………………………….....21 Figure 3.6 : Circular runway design………………………………………………..22 Figure 3.7 : Windshare aircraft during landing…………………………………….23 Figure 3.8 : Circular Runway Simulation…………………………………………..24 Figure 3.9a,b,c : Circular Runway calculation……………………………………..24 Figure 3.10 : To reduce air traffic,the best design of departure and arrival ways….27 Figure 3.11 : Arrival and departure routes in strong wind conditions( >20 kt )…...27 Figure 3.12 : Circular runway slope………………………………………………..28 Figure 3.13 : An idea of circular runway design with slope………………………..28 Figure 3.14 : Aircraft wing span position…………………………………………..28 Figure 3.15 : Relative airport costs………………………………………………....29 Figure 3.16 : Four Parameters Changing by the Time……………………………...32 Figure 3.17 : Flight Route………………………………………………………......32 Figure 3.18 : Route - Google Earth…………………………………………………33 Figure 3.19 : Landing Part - Google Earth…………………………………………33 Figure 3.20 : Landing Part - Google Earth - 3D……………………………………34 Figure 3.21 : Flight data on Google Earth route……………………………………34 Figure 3.22 : Four Parameters Changing by the Time……………………………...35 Figure 3.23 : Flight Route…………………………………………………………..36 Figure 3.24 : Landing Part - Google Earth…………………………………………36 Figure 3.25 : Landing Part - Google Earth - 3D……………………………………37 Figure 3.26 : Landing Part - Google Earth - 3D Continuous Descent View……….37 Figure 3.27 : Four Parameters Changing by the Time……………………………...38 Figure 3.28 : Flight Route…………………………………………………………..39 Figure 3.29 : Landing Part - Google Earth…………………………………………39 Figure 3.30 : Landing Part - Google Earth - 3D……………………………………40 Figure 3.31 : Landing Part - Google Earth - 3D – Another View………………….40 x
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