The Graduate Diploma in Flight Control Systems (Aerospace Engineering) offers a well-balanced and structured curriculum covering both theory and hands-on practice across a spectrum of modules ranging from structural modelling and additive manufacturing to safety and flight dynamics. This comprehensive curriculum not only equips learners with technical expertise but also instils a deep appreciation for the real-world challenges and advancements in the field of aerospace engineering.
In close consultation with industry experts, the graduate diploma offers a deep overview of the fundamental principles and advanced control concepts, focusing on flight mechanics, such as Introduction to Flight Mechanics, Flight Control Systems, and Advanced Flight Control Systems.
Learners will also be able to deepen their aerospace engineering skill set from classes conducted on Flight Control Lab – which emphasises on numerical methods and tools and MATLAB/Simulink —an invaluable skill for engineers engaged in dynamic system modelling and control design.
Our excellent theory-to-practical hands-on approach ensures that graduates are not only well-versed in theoretical frameworks but also adept at solving real industry problems.
Taught by seasoned professionals and industry experts, these lecturers bring a wealth of industry experience to the table to ensure students are well geared in current industry practices, emerging trends, and best management practices.
The diploma also covers aviation safety principles, regulations, airworthiness codes, and safety analysis methods to ensure that students are not only technically proficient but also possess a deep understanding of the regulatory frameworks that govern the aerospace sector.
The modules incorporate practical exercises, case studies, and real-world examples, enabling students to apply theoretical concepts to practical scenarios.
The graduate diploma in flight control systems focuses on the rigorous study of scientific principles, mathematical models, and engineering methodologies that are crucial for understanding the complexities of aircraft design, flight dynamics, and aerospace systems. The incorporation of Finite Element Method (FEM) software, additive manufacturing technologies, and advanced flight control systems will enable participants to develop the necessary proficiency in integrating cutting-edge technologies and methodologies undergirded by scientific principles.
In addition, the programme will also covers the essential safety and certification aspects, as well as the practical application of numerical methods through tools like MATLAB/Simulink to equip students with the scientific understanding necessary for ensuring compliance with industry regulations.
Participants will be awarded the Graduate Diploma in Flight Control Systems upon successful completion of 6 core modules and their examinations from the list below:
To view the module content for each module, please click on the module title
This course will cover topics in flight system dynamics and flight control. Students will be able to understand relations between aircraft performance and flight control and stability. Through this course, students will be able to apply aircraft performance calculations that are required in the preliminary design of aircraft.
This course provides a comprehensive introduction to the functionality of the software MATLAB / Simulink and explains the aerospace engineering problems the tool can be used to solve. Emphasis is placed on numerical modelling of technical problems and the engineering interpretation of results. For dynamic vibration behaviour, syntheses will be made with control simulation to show the interaction of several disciplines and to introduce the field of controlling flexible systems to students.
This course introduces the basic operating principle of flight controls. Based on the non-linear equations of motion of airplanes and basic control theory principles, control strategies are derived in order to improve the handling qualities or stability of airplanes. In addition, strategies for the implementation of autopilots are presented.
This course addresses the certification process of avionics and flight control systems in commercial aviation. The focus lies in safety analysis methods, taking common approaches of their employment in development projects of safety-critical systems in the industry into account. The course begins with giving a general overview of the development and certification of flight control systems, along with the contents of relevant development standards and recommended practices and the resulting process structure. Based on this, profound knowledge of the process and methods of safety assessment of complex technical systems in aircraft is conveyed.
This course conveys complex control concepts for aircraft. How the C*-criterion is derived and modern concepts of adaptive control in aviation are covered.
This course provides a comprehensive exploration of aircraft operation and navigation, covering essential topics such as cockpit layout, flight instruments, legal considerations, and diverse navigation methods. From inertial and satellite navigation to radio navigation and integrated systems, the course encompasses the key elements of aviation. Aerial surveillance technologies, including primary and secondary radar, communication methods, and emerging technologies like ADS-B, are also addressed. Through this course, participants gain a thorough understanding of the fundamental components crucial for proficient and secure aircraft operation.
The course demonstrates the use of common Finite Element software tools using typical examples from the field of aerospace structures. The most important basics of FEM, and modelling aspects will be covered. Typical questions in the structural calculation from the areas of statics and dynamics serve as examples. With the knowledge gained, aeronautical structures can be modelled, analysed and evaluated with regard to their characteristics.
The course is an introduction to additive manufacturing and focuses on additive manufacturing technologies for both polymers and metals. The entire process chain of additive manufacturing is discussed, including feedstock materials, part design, production processes, monitoring, post-processes, and standardization. The course is enriched by exemplary applications, expert talks from industry, and field trips.
This modules covers the essentials of Aviation Safety Principles, Basics in Regulations, Airworthiness Code (CS-27, CS-29), Loads, Stress and Fatigue, Performance Categories, Safety Analysis and Flight Accident Investigation. During the classes covering the fundamentals of flight safety and certification, participants will also have the possibility to discuss the important aspects together with the professor.
Mid-level managers looking to advance their careers through internationally renowned academic study and qualifications.
Professionals in the following or related fields (but not limited to):
Early or mid-career professionals in aerospace engineering
Individuals looking to upskill themselves in the latest flight control systems
A Bachelor’s degree (or higher) in mechanical engineering, mechatronics or aerospace engineering
Applicants who do not meet the entry requirements may be considered based on:
(i) Evidence of at least 5 years of relevant working experience; OR
(ii) Supporting evidence of competency readiness
Suitable applicants who are shortlisted may have to go through an interview.
TUM Asia reserves the right to shortlist and admit applicants.
For admissions and course-related questions, please email the Office of Executive Development (exd@tum-asia.edu.sg).
Participants will be awarded the Graduate Diploma in Flight Control Systems programme upon successful completion.
