AE107 – Introduction to Aerospace Engineering

Autumn Semester

Class Schedule: TBD

Classroom: TBD
 

Instructor: Dr. Murat Taflan

Email: murattaflan@gantep.edu.tr

Office Hours: Meetings by prior appointment via email; open door policy for quick queries.

Course Objectives:

This course provides a broad introduction to aerospace engineering, covering fundamental principles, vehicle design, aerodynamics, structures, flight mechanics, propulsion, and space flight. By the end of the course, students will:

-Understand the scope of aerospace engineering and key industry applications.

-Learn about the history of flight and the evolution of aerospace technology.

-Gain insight into the aerospace industry, potential career paths, and job opportunities.

-Explore what to expect from an aerospace engineering degree and the courses they will take in the following years.

-Recognize how different engineering disciplines integrate within aerospace engineering.

-Develop foundational knowledge in aerodynamics, flight mechanics, and propulsion as an introduction to more advanced studies.

-Understand that the topics covered in this course provide an overview rather than a complete in-depth study, with each session serving as a 2-hour introduction to key aerospace subjects.
 

Topics:

Week-1 / Scope & Introduction, History

Week-2 / Aerospace Vehicles and their Components

Week-3 / Fundamental - Perfect Gas / Aerostat Design

Week-4 / More Fundamentals / Standard Atmosphere

Week-5 / Recap, Examples

Week-6 / Basic Aerodynamics – 1

Week-7 / Basic Aerodynamics - 2

Week-8 / Basic Aerodynamics – 3

Week-9 / Mid-term  Exam

Week-10 / Basic Aerodynamics – 4

Week-11 / Aircraft Structures

Week-12 / Flight Mechanics - Aircraft Performance

Week-13 / Flight Mechanics - Stability and Control

Week-14 / Aircraft Propulsion

Week-15 / Space Flight

 

Grading:

Mid-Term Exam: 40%

Final Exam: 60%

Assignments/Projects: To be decided (weighting adjusted accordingly)

 

Textbooks:

Primary References:

1.Anderson, J. D. (2016). Introduction to Flight (8th ed.). McGraw-Hill Education.

2.Soler, M. (2014). Fundamentals of Aerospace Engineering. CreateSpace Independent Publishing Platform.

AE 304 - Flight Mechanics: Performance

Spring 2025

Wednesday 13:30–16:05

Classroom: UM

Instructor Dr. Murat Taflan

Email: murattaflan@gantep.edu.tr

Office Hours: Meetings by prior appointment via email; open door policy for quick queries.

 

Course Objectives:

This course provides an introduction to aircraft performance analysis, emphasizing theoretical and practical aspects. By the end of the course, students will:

-Understand fundamental flight mechanics principles and performance characteristics of aircraft.

-Analyze key performance metrics, including range, endurance, climb, descent, and maneuvering flight.

-Develop proficiency in applying aerodynamic and propulsion theories to aircraft performance problems.

-Gain exposure to industry-relevant methods for estimating aircraft capabilities and limitations.

Topics (Subject to Change!):

Week-1 / Scope & Introduction

Week-2 / Aerodynamics: Lift, Drag, Moments, Coeff., A.C., NACA, Buildup

Week-3 / Aerodynamics: Lift and Drag Buildup, Drag Polar, Summary

Week-4 / Propulsion: Thrust and Efficiency, Engine Types

Week-5 / The Equation of Motion, and for Steady Level Flight

Week-6 / Steady Flight: Thrust, Fundamentals, Max Velocity

Week-7 / Examples

Week-8 / Mid-Term Exam

Week-9 / St. Flight: Power, Max Velocity, Drag Divergence Effect

Week-10 / St. Flight: Stall Speed, High Lift Devices, Climb, Service Ceilings

Week-11 / Steady Flight: Climb Time, Range, Endurance, Summary

Week-12 / Accelerated Flight: Level Turn, Pull-up/down, Load Factor, V-n

Week-13 / Accelerated Flight: V-n, Acc. Climb, Takeoff, Landing,

Week-14 / Recap

Week-15 / Sample Examples

Grading:

Mid-Term Exam: 40%

Final Exam: 60%

Assignments/Projects: To be decided (weighting adjusted accordingly)

Textbooks:

Primary Reference: Anderson, J.D., Aircraft Performance & Design, McGraw-Hill Education, 1999.

Additional References: Supplemental handouts, articles, and resources will be provided during lectures.

AE 415 - Aircraft Systems II

Spring 2025
Thursday 13:30–16:05
Classroom: UM

Instructor: Dr. Murat Taflan
Email: murattaflan@gantep.edu.tr
Office Hours: Meetings by prior appointment via email; open door policy for quick queries.

Course Objectives:
This course provides an in-depth study of advanced aircraft systems, focusing on mechanical, electrical, and avionics subsystems. By the end of the course, students will:
•Understand the role and integration of various aircraft systems.
•Analyze the design, function, and operation of key systems, including environmental control, emergency, and avionics systems.
•Develop proficiency in system analysis, failure assessment, and performance evaluation.
•Apply knowledge to practical industry-relevant case studies.

Topics (Subject to Change!):
1.Week-1 / Scope & Introduction
2.Week-2 / Pneumatic Systems -1
3.Week-3 / Pneumatic Systems -2
4.Week-4 / Environmental Control System - 1
5.Week-5 / Environmental Control System - 2
6.Week-6 / Emergency Systems -1
7.Week-7 / Emergency Systems -2
8.Week-8 / Mid-Term Exam
9.Week-9 / Advanced Systems -1
10.Week-10 / Advanced Systems -2
11.Week-11 / System Design and Development-1
12.Week-12 / System Design and Development-2
13.Week-13 / Avionics Technology-1
14.Week-14 / Avionics Technology-2
15.Week-15 / Recap

Grading:
•Mid-Term Exam: 40%
•Final Exam: 60%
•Assignments/Projects: To be decided (weighting adjusted accordingly)

Textbooks:
Primary Reference: Moir, Ian & Seabridge, Allan. Aircraft Systems: Mechanical, Electrical, and Avionics Subsystems Integration, 3rd Edition, John Wiley & Sons.

AVM363 - Aircraft Maintenance Management

Spring 2025
Tuesday 09:25–12:00
Classroom: A14 (Subject to chage!)

Instructor: Dr. Murat Taflan
Email: murattaflan@gantep.edu.tr
Office Hours: Meetings by prior appointment via email; open door policy for quick queries.

Course Objectives:
•Understand fundamental concepts and importance of aircraft maintenance and management.
•Gain knowledge about aviation regulations and maintenance practices.
•Develop ability to design, manage, and evaluate maintenance programs effectively.
•Understand roles of management, engineering, logistics, and technical training in maintenance operations.
•Recognize the importance of safety, airworthiness, reliability, and human factors in aircraft maintenance.

Topics (Subject to chage!): 
1.Introduction and Historical Overview of Aviation Maintenance
2.Regulatory Framework and Airworthiness
3.Development and Management of Maintenance Programs
4.Technical Documentation and Record Keeping
5.Reliability-Centered Maintenance (RCM)
6.Maintenance Procedures and Quality Assurance
7.Human Factors and Safety Management Systems (SMS)
8.Aircraft Systems and Component Maintenance
9.Maintenance Facility and Inventory Management
10.Production Planning, Logistics, and Technical Training
11.Cost Management and Economic Analysis in Maintenance
12.Emerging Technologies in Aviation Maintenance
13.Case Studies and Practical Applications
14.Student Project Presentations and Reviews

Grading:
•Mid-Term Exam: 40%
•Final Exam: 60%
•Assignments/Projects: To be decided (weighting adjusted accordingly)

Textbooks:
1.Kinnison, Harry A., Siddiqui, Tariq, Aviation Maintenance Management, McGraw-Hill Education, 2012 (Primary Reference)
2.Kroes, Michael, Watkins, William, Delp, Frank, Aircraft Maintenance & Repair, McGraw-Hill Education, 2013 (Technical Support Reference)

References:
•FAA/EASA regulatory documents (as assigned during lectures)
•Additional materials provided through course webpage or handouts during lectures
Further details on assignment submissions, exams, and updates will be provided during lectures and posted on the course webpage.