Aeronautical and astronautical engineers apply their understanding of basic physical phenomena to design and operate aircraft, missiles, and space vehicles. Aeronautics is the design, development, analysis, testing, and production of aircraft for military or civilian markets. Astronautics is the design, development, analysis, testing, and production of rockets, spacecraft, and global space/international systems.
As an aeronautics and astronautics student, you’ll follow a curriculum that explores the fundamentals of engineering science and the technologies and design of flight vehicles. Aircraft and spacecraft design courses integrate many engineering fields to provide a mastery of complete flight systems.
Note: The First-Year Engineering Program is the entry point for all beginning engineering students. They must complete the First-Year Engineering requirements before entering the engineering school of their choice. The mission of this student-oriented service program is to advise, teach and retain outstanding students for Purdue’s College of Engineering. This core curriculum includes courses in math, chemistry, physics, computer programming, and communication skills, as well as introductory engineering coursework taught in the new Ideas to Innovation (i2i) Learning Laboratory.
The First-Year Engineering Program provides students with a firm foundation and initial understanding of engineering and career options to assist them in identifying which of Purdue’s engineering disciplines is the right fit. Our professional academic advisors, faculty and student advisors are dedicated to assisting beginning engineers with the first-year experience.
purdue aerospace engineering admission requirements
Transfer to Aeronautical and Astronautical Engineering
Purdue admits to individual majors. Transfer students must meet Purdue’s overall transfer criteria, as well as any major-specific requirements. Before you apply, check the closed programs page to confirm this major is open to transfer students. If it is, refer to the information below for major-specific transfer criteria.
Minimum GPA: 3.7
Additional Requirements: See the Engineering Transfer Criteria page for more detailed course requirements.
purdue aerospace engineering gpa requirements
Aeronautical and Astronautical Engineering
- Minimum Semesters: 2
- Minimum Credits: 30
- Minimum GPA: 3.2
Students must complete the following courses with a grade of C- or better:
- MA 16100 or MA 16500
- MA 16200 or MA 16600
- CHM 11500
- PHYS 17200
- Oral Communication Foundational Outcome course (typically COM 11400)
- Written Communication Foundational Outcome course (typically ENGL 10600)
- Students are admitted on a SPACE AVAILABLE BASIS only.
- Students must have a 3.0 average GPA in any engineering, science, and math courses completed prior to CODO. This includes CS 15900 and CGT 16300 if taken.
- Student must be in good academic standing (not on probation).
Purdue Aerospace Engineering Courses
AAE 19000 Introduction to Aerospace Engineering
AAE 20000: Sophomore Seminar
AAE 20300: Aeromechanics
AAE 20400: Aeromechanics II
AAE 20401: Aeromechanics II Lab
AAE 25100: Introduction to Aerospace Design
AAE 30000: Junior Seminar
AAE 30100: Signal Analysis for Aerospace Engineering
AAE 33300: Introduction to Fluid Mechanics
AAE 33301 Fluid Mechanics Laboratory
AAE 33400: Aerodynamics
AAE 33401 Aerodynamics Laboratory
AAE 33900: Aerospace Propulsion
AAE 34000: Dynamics and Vibrations
AAE 35103 Aerospace Systems Design
AAE 35200: Aerospace Structural Analysis I
AAE 35201: Structural Analysis I Laboratory
AAE 36400: Control Systems Analysis
AAE 36401: Control Systems Laboratory
AAE 37200: Jet Propulsion Powerplants
AAE 40000: Senior Seminar
AAE 41200 Introduction to Computational Fluid Dynamics
AAE 41600 Viscous Flows
AAE 42100: Flight Dynamics and Control
AAE 43900: Rocket Propulsion
AAE 44000: Spacecraft Attitude Dynamics
AAE 44300 Industrial Practices Seminar
AAE 45000: Spacecraft Design
AAE 45100: Aircraft Design
AAE 45300 Matrix Methods in Aerospace Structures
AAE 45400: Design of Aerospace Structures
AAE 49000/59000: Design/Build/Test Projects
AAE 49000: Flight Testing
AAE 49000: Space Flight Project Implementation
AAE 49000: Special Problems in Aeronautical Engineering
AAE 50700: Principles of Dynamics
AAE 50800: Optimization in Aerospace Engineering
AAE 51100: Introduction to Fluid Mechanics
AAE 51200: Computational Aerodynamics
AAE 51400: Intermediate Aerodynamics
AAE 51500: Rotorcraft Aerodynamics
AAE 51800: Low-Gravity Fluid Dynamics
AAE 51900: Hypersonic Aerothermodynamics
AAE 52000: Experimental Aerodynamics
AAE 53200: Orbit Mechanics
AAE 53500: Propulsion Design, Build, Test
AAE 53700: Hypersonic Propulsion
AAE 53800/ME 53800 – Air Breathing Propulsion
AAE 53900: Advanced Rocket Propulsion
AAE 54600: Aerospace Structural Dynamics and Stability
AAE 54700: Experimental Stress Analysis
AAE 55000: Multidisciplinary Design Optimization
AAE 55100: Design Theory and Methods for Aerospace Systems
AAE 55200: Nondestructive Evaluation of Structures and Materials
AAE 55300: Elasticity in Aerospace Engineering
AAE 55400: Fatigue of Structures and Materials
AAE 55500: Mechanics of Composite Materials
AAE 55600: Aeroelasticity
AAE 55800: Finite Element Methods in Aerospace Structures
AAE 55900: Mechanics of Friction and Wear
AAE 56000: System-of-Systems Modeling and Analysis
AAE 56400: Systems Analysis and Synthesis
AAE 56500: Guidance and Control of Aerospace Vehicles
AAE 56700: Introduction to Applied Stochastic Processes
AAE 56800: Applied Optimal Control and Estimation
AAE 58500: Air Transportation
AAE 59000 / MSE 59700: Dynamic Behavior of Materials
AAE 59000: Projects in Aeronautical Engineering
AAE 59000: Space Flight Operations
AAE 59000: System Safety and Reliability Engineering
AAE 65400: Fracture Mechanics
AAE 66800: Hybrid Systems: Theory and Applications
AAE 69000: Combustion Stability
purdue aerospace engineering masters
The School of Aeronautics and Astronautics undergraduate program normally begins in the second year, after completion of the common First Year Engineering Program.
AAE is among the top aerospace engineering programs in the nation and was ranked No. 4 in the 2022 U.S. News & World Report rankings of aerospace undergraduate programs.
The sophomore year sets the foundation of basic engineering, including statics, dynamics, elementary structures, thermodynamics, and a broad introduction to the design of both aircraft and spacecraft.
In the junior year, students learn about aerodynamics, propulsion, structures, dynamics, and control systems. Some courses in the junior year are available in both aeronautical and astronautical versions, and students choose the version of primary interest.
In the senior year, students pursue, in consultation with their academic advisor, a specialization area. This is commonly chosen from the disciplines of:
- Aerospace Systems Design
- Astrodynamics and Space Applications
- Autonomy and Control
- Structures and Materials
All students must complete a team-based senior design project, which integrates the technical disciplines and leads to a preliminary design of an aerospace system. Students may elect either aircraft or spacecraft versions of the senior design project.
Students successfully completing the curriculum will be awarded the B.S. AAE degree.
The program is accredited by the Engineering Accreditation Commission of ABET, www.abet.org.
The objective of the undergraduate aeronautical and astronautical engineering program is to prepare students for careers in aerospace engineering and related disciplines.
We consider this objective to be achieved if:
- All graduates are meaningfully employed in industry or government or are pursuing graduate studies within one year of graduation
- Most of our graduates take jobs in the aerospace industry or pursue graduate work in aerospace engineering
- After five years, most graduates are working in engineering
- After five years most graduates have advanced their careers by, for example, promotion or pursuit of an advanced degree
- All of our alumni feel that their education at Purdue was valuable preparation for their careers, whatever their field of endeavor.
Through the course of their studies, students shall gain:
- An ability to identity, formulate and solve complex engineering problems by applying principles of engineering, science, and mathematics
- An ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental and economic factors.
- An ability to communicate effectively with a range of audiences
- An ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts
- An ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives
- An ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions
- An ability to acquire and apply new knowledge as needed, using appropriate learning strategies