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Aircraft Design Engineer

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April 13, 2024 3 minute read

Aircraft Design Engineers are responsible for the design and development of aircraft. They work with a team of engineers and other professionals to create new aircraft or modify existing ones. Aircraft Design Engineers use their knowledge of aerodynamics, materials science, and other engineering disciplines to ensure that aircraft are safe, efficient, and meet the needs of their customers.

Skills and Responsibilities

Aircraft Design Engineers typically need a bachelor's degree in aerospace engineering or a related field. They also need to have a strong understanding of aerodynamics, materials science, and other engineering disciplines. Aircraft Design Engineers typically have the following skills and responsibilities:

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Salaries for Aircraft Design Engineer

City
Median
New York
$112,000
San Francisco
$176,000
Seattle
$141,000
See all salaries
City
Median
New York
$112,000
San Francisco
$176,000
Seattle
$141,000
Austin
$129,000
Toronto
$111,000
London
£95,000
Paris
€81,000
Berlin
€93,000
Tel Aviv
₪207,000
Singapore
S$90,000
Beijing
¥650,000
Shanghai
¥150,000
Shenzhen
¥205,000
Bengalaru
₹335,000
Delhi
₹815,000
Bars indicate relevance. All salaries presented are estimates. Completion of this course does not guarantee or imply job placement or career outcomes.

Path to Aircraft Design Engineer

Take the first step.
We've curated one courses to help you on your path to Aircraft Design Engineer. Use these to develop your skills, build background knowledge, and put what you learn to practice.
Sorted from most relevant to least relevant:

Reading list

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This classic text, originally developed by the U.S. Navy, offers a practical understanding of aerodynamic principles relevant to flight. While not a traditional textbook, it provides valuable insights into how aerodynamic forces affect aircraft in flight, which is crucial for flight dynamics.
Delves into the dynamic modeling of rigid body systems with a focus on aerospace applications. It provides a deeper understanding of the underlying mechanics required for formulating the equations of motion in flight dynamics.
For those interested in rotary-wing aircraft, this book key resource. It covers the specific aerodynamic and aeroelastic principles that govern helicopter flight dynamics, offering a specialized but important perspective within the broader field.
Is widely considered the standard textbook for aircraft conceptual design, covering the entire process from initial sizing to optimization and trade studies. It's an invaluable reference for students and practicing engineers, offering a practical, industry-oriented perspective with numerous examples and design methods. It's commonly used as a textbook in universities and by industry professionals.
An excellent starting point for those new to aerospace engineering, this book provides a broad overview of the history of flight and fundamental concepts in aerodynamics, propulsion, and aircraft performance. It blends historical context with technical explanations, making it highly readable and suitable for high school and early undergraduate students. It serves as a strong foundation for more specialized topics.
Offers a modern approach to flight dynamics, integrating principles of aeronautics with contemporary systems analysis. It is suitable for upper-level undergraduates, graduate students, and practicing engineers. The book includes MATLAB code for simulations and linear system analysis, making it a valuable reference for practical application.
This foundational text delves into the principles of aerodynamics with a balance of theoretical explanation and practical application. It is essential for understanding how airfoils and wings work and cornerstone for students pursuing a deeper understanding of the forces acting on an aircraft. It widely used textbook in undergraduate and graduate aerospace engineering programs.
This comprehensive text provides an integrated overview of airplane performance, stability, dynamics, and flight control. It covers fundamental principles with examples and design exercises, making it an ideal resource for upper-level undergraduates, graduate students, and professionals. The third edition includes updates and a new chapter on unmanned aerial vehicles.
Considered one of the best references for flight dynamics, this book offers a rigorous treatment of the subject. It is suitable for graduate students and researchers seeking a deep understanding of modern flight dynamics principles.
This comprehensive multi-volume series that provides an in-depth look at the aircraft design process. Known for its detailed procedures and empirical data, it valuable reference for serious students and practicing engineers undertaking detailed design work. While extensive, it offers a wealth of practical information and is often used in capstone design courses.
Another highly recommended reference for flight dynamics, this book by Jan Roskam is known for its comprehensive coverage. It valuable resource for those looking for a detailed understanding of both flight dynamics and automatic flight controls.
Comprehensive resource for understanding flight mechanics, covering performance, static and dynamic stability, and control. It progressively builds from fundamental principles to more complex topics like flight simulation. It is suitable for undergraduate and graduate students and is increasingly used as a key textbook in flight mechanics courses.
A classic and widely used textbook in university flight mechanics courses, this book provides a fundamental treatment of aircraft stability and control. It covers physical and mathematical foundations, including static stability and six degrees of freedom theory. While an older edition, its foundational principles remain highly relevant.
Classic text on flight dynamics that has been used by students and professionals for over 50 years. It provides a rigorous treatment of the subject, covering topics such as aircraft stability, control, and performance.
This advanced text integrates aircraft performance, trim, stability, and control using a nonlinear approach. It introduces bifurcation and continuation theory and the nonlinear dynamic inversion methodology, making it suitable for senior undergraduates, graduate students, and researchers interested in advanced topics.
A more advanced text focusing on the conceptual design, analysis, and optimization of subsonic civil aircraft. It provides a contemporary discussion of key topics and addresses how to develop a new design, including optimization techniques. is suitable for graduate students and professionals.
Widely referenced text in flight dynamics and control, particularly for its coverage of control system design and simulation. It is suitable for graduate students and practicing engineers. While some find the derivations challenging, it remains a valuable resource for those focusing on the control aspects of flight dynamics.
Recommended for both general aviation enthusiasts and aspiring aerospace engineers, this book balances breadth and depth in explaining flight mechanics principles. It progresses from simpler problems to the general equations of motion and flight simulation, making it suitable for a two-semester course.
Covers the modeling, analysis, simulation, and control of aircraft flight dynamics. It more theoretical and mathematical treatment of how aircraft move and respond to control inputs. It key resource for graduate students and researchers in flight mechanics and control.
Provides a modern approach to flight dynamics, covering topics such as aircraft stability, control, and performance. It valuable resource for students and professionals in aerospace engineering.
Given the increasing use of composite materials in modern aircraft, this book provides essential knowledge on their properties, analysis, design, and manufacturing in an aerospace context. It is highly relevant to contemporary aircraft design and is valuable for students and professionals interested in materials and structures.
Unifies aspects of flight dynamics for developing aerospace vehicle simulations. It uniquely uses tensors for modeling and includes hands-on examples for 3, 5, and 6-degrees-of-freedom simulations. It's a valuable resource for advanced undergraduates, graduate students, and those interested in simulation.
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