Eskisehir Technical University Info Package Eskisehir Technical University Info Package
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About the Program Educational Objectives Key Learning Outcomes Course Structure Diagram with Credits Field Qualifications Matrix of Course& Program Qualifications Matrix of Program Outcomes&Field Qualifications
  • Institute of Graduate Programmes
  • Department of Air Traffic Control
  • Air Traffic Control (Master) (Thesis)
  • Course Structure Diagram with Credits
  • Air Traffic Management and Aircraft Performance I
  • Description
  • Description
  • Learning Outcomes
  • Course's Contribution to Prog.
  • Learning Outcomes & Program Qualifications
  • ECTS Credit Load

Course Introduction Information

Code - Course Title HTK501 - Air Traffic Management and Aircraft Performance I
Course Type Required Courses
Language of Instruction Türkçe
Laboratory + Practice 3+0
ECTS 7.5
Course Instructor(s) PROFESÖR DOKTOR CEM ÇETEK
Mode of Delivery Face to face
Prerequisites Aerodynamics course is prerequisite for this coırse.
Courses Recomended PLT 225
Required or Recommended Resources Young, T. (2018), Performance of the Jet Transport Airplane, Wiley.Flippone, A. (2012), Advanced Aircraft Flight Performance, Cambridge.David G. Hull (2007), Fundamentals of Airplane Flight Mechanics, Springer. Ojha, S.K. (1995), Flight Performance of Aircraft, AIAA Education Series
Recommended Reading List
Assessment methods and criteria 1 mid-term exam, homework and final exam.
Work Placement N/A
Sustainability Development Goals

Content

Weeks Topics
Week - 1 General Definitions: Air Traffic Management; Aircraft; Aircraft Life Cycle; Aircraft Regulatory Framework; Airplanes and Aircraft Classification; Aircraft Used in Commercial Air Transport; Global Fleet Distribution and Forecasts; Aircraft Performance: Methodology, Performance Characteristics and Performance Metrics; Aircraft Performance Classifications; Flight (Mission) Profile.
Week - 2 General Equations of Motion: Coordinate Systems and Assumptions: Coordinate Transformations; Equations of Motion: Kinematic Equations, Dynamic Equations, Weight Equation; Flight over a Flat Earth: Flight in the Vertical Plane, Flight in the Horizontal Plane, Three-Dimensional Equations of Motion; Flight over a Spherical Earth; Flight in a Moving Atmosphere.
Week - 3 EN: Aerodynamics, Propulsion, and Flight Environment: Aerodynamic Relationships; Estimation of Drag Coefficient; Parabolic Drag Polar; Actual Drag Polar; Propulsion System Characteristics: Thrust and Specific Fuel Consumption, Ideal Subsonic Turbojet Model; Standard Atmosphere Model; Actual Atmosphere and Meteorology.
Week - 4 Level Flight Performance -Fundamental Definitions: Distance and Speed Definitions: Relationships Among Airspeeds; Symmetric Level Flight Equations: Thrust Required, Thrust Available; Calculation of Level Flight Speed: Minimum Drag Speed and Minimum Drag, Level Flight Condition; Speed Limits; Altitude Limits: Absolute Ceiling and Service Ceiling for Jet and Propeller-Driven Aircraft.
Week - 5 Level Flight Performance- Cruise Range: Specific Range: Effects of Weight, Altitude, and Mach Number, Wind Effects; Methods for Calculating Cruise Range; Analytical Integration: Cruise Schedules, Weight Relationships, Cruise at Constant Altitude and Constant Lift Coefficient, Cruise at Constant Speed and Constant Lift Coefficient, Cruise at Constant Altitude and Constant Speed; Numerical Integration: Integrated Range Method; Cruise Tables and Range Diagrams.
Week - 6 Level Flight Performance: Optimal Cruise Range and Endurance Cruise Optimization Problem; Best Range Speed/Mach Number; Optimal Cruise Range Schedules; Payload–Range Analysis; Holding Performance: Endurance, Holding Equations of Motion, Optimum Altitude; Maximum Endurance; Analytical Integration: Endurance at Constant Speed and Constant Lift Coefficient, Endurance at Constant Altitude and Constant Speed; Endurance Calculation Using Numerical Integration.
Week - 7 Climb Performance: Climb–Speed Schedules; Climb Motion: Climb Equations, Climb Angle and Rate of Climb; Numerical Calculation of Climb Distance, Time, and Fuel Consumption; Optimal Climb Schedules: Steepest Climb, Fastest Climb, Most Economical Climb; Climb with Limited Thrust; Selection of Cruise Altitude; Cruise Climb Schedule; Engine and Pressurization Failures.
Week - 8 Descent and Glide Performance: Steady Descent/Glide Motion; Numerical Solution of the Glide Problem; Continuous Descent Approach; Maximum Range and Maximum Endurance Gliding.
Week - 9 Accelerated Flight Performance-Maneuvering Performance: Turning Maneuvers in the Horizontal Plane; Coordinated Turns; Optimal Coordinated Turn Schedules: Turns at Maximum Load Factor, Minimum Radius Turns, Maximum Rate Turns; Maneuvering Envelope.
Week - 10 Accelerated Flight Performance-Accelerated Level Flight and Climb: Equations of Accelerated Level Flight; Equations of Accelerated Climb; Acceleration Factor; Climb at Constant Equivalent Airspeed (EAS); Climb at Constant Calibrated Airspeed (CAS); Climb at Constant Mach Number; Determination of Crossover Altitude; Energy Method: Aircraft Specific Energy, Energy Maneuverability.
Week - 11 Takeoff Motion: Ground Roll, Rotation Distance, Transition Distance, Takeoff Time; Factors Affecting Takeoff Performance.
Week - 12 Landing and Approach Performance: Landing Maneuver; Landing Phases; Landing Distance; Flight Operations.
Week - 13 Mission Fuel Calculation: Requirements; Fuel Calculation Methods; Payload–Range Diagram.
Week - 14 Operating Costs: Cost Index, Cruise Speeds, Economic Mach Number and Cruise Cost Function; Relationship Between Cost Index and Climb and Descent Performance.

Learning Activities and Teaching Methods

  • Teaching Methods
  • Lecture
  • Question & Answer
  • Demonstration
  • Experiment
  • Drill - Practise
  • Report Preparation and/or Presentation
  • Proje Design/Management
  • Competences
  • Productive
  • Rational
  • Questoning
  • Creative
  • Environmental awareness
  • Use time effectively
  • Problem solving
  • To work autonomously
  • Elementary computing skills
  • Decision making

Assessment Methods

Assessment Method and Passing Requirements
Quamtity Percentage (%)
1.Midterm Exam 1 30
Homework 1 30
Final Exam 1 40
Toplam (%) 100
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