Aerospace Engineers
SOC Code: 17-2011.00
Architecture & EngineeringAerospace engineers design the aircraft, spacecraft, satellites, and missiles that push the boundaries of human exploration and national defense. With a median salary around $130,720 and a solid 5.7% projected growth rate, this engineering discipline combines advanced physics, mathematics, and materials science to solve some of the most complex challenges in technology. From designing next-generation commercial jetliners to developing Mars rovers and hypersonic weapons systems, aerospace engineers work at the frontier of what's technically possible.
Salary Overview
Median
$134,830
25th Percentile
$104,740
75th Percentile
$174,480
90th Percentile
$205,850
Salary Distribution
Job Outlook (2024–2034)
Growth Rate
+6.1%
New Openings
4,500
Outlook
Faster than average
Key Skills
Knowledge Areas
What They Do
- Plan or conduct experimental, environmental, operational, or stress tests on models or prototypes of aircraft or aerospace systems or equipment.
- Formulate conceptual design of aeronautical or aerospace products or systems to meet customer requirements or conform to environmental regulations.
- Plan or coordinate investigation and resolution of customers' reports of technical problems with aircraft or aerospace vehicles.
- Write technical reports or other documentation, such as handbooks or bulletins, for use by engineering staff, management, or customers.
- Evaluate product data or design from inspections or reports for conformance to engineering principles, customer requirements, environmental regulations, or quality standards.
- Analyze project requests, proposals, or engineering data to determine feasibility, productibility, cost, or production time of aerospace or aeronautical products.
- Maintain records of performance reports for future reference.
- Formulate mathematical models or other methods of computer analysis to develop, evaluate, or modify design, according to customer engineering requirements.
Tools & Technology
★ = Hot Technology (in-demand)
Education Requirements
Typical entry-level education: Bachelor's Degree
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A Day in the Life
A typical day varies significantly by role and career stage. A junior structural engineer might spend the morning running finite element analysis simulations on a wing panel design, iterating material thickness and composite layups to minimize weight while meeting structural loads. Mid-morning brings a design review meeting where aerodynamics, structures, and systems engineers present trade studies for a new aircraft configuration. Afternoon work could involve reviewing test data from wind tunnel experiments, comparing results to computational fluid dynamics predictions, and preparing recommendations for design modifications. A propulsion engineer at a rocket company might spend their day analyzing chamber pressure data from yesterday's engine test, adjusting turbopump models, and meeting with manufacturing about a turbine blade casting issue. Senior engineers spend more time in program reviews, risk assessments, requirements analysis, and mentoring junior team members. The work demands precision — errors measured in fractions of an inch matter when your product travels at Mach speeds.
Work Environment
Aerospace engineers work in offices, design labs, testing facilities, manufacturing floors, and occasionally at launch sites or flight test centers. Defense programs may require SCIF (Sensitive Compartmented Information Facility) access, meaning phone-free, internet-restricted work environments. The work is highly collaborative — large aerospace programs involve hundreds or thousands of engineers coordinating across disciplines. Standard work weeks are common, but program milestones, flight tests, and launches create periods of intense overtime. Major employers concentrate near aerospace hubs: Southern California, Seattle, the Washington D.C. corridor, Huntsville, Alabama, and central Florida. The culture blends intense technical rigor with mission-driven passion — engineers at NASA, SpaceX, or defense contractors are often deeply motivated by the significance of their work.
Career Path & Advancement
A bachelor's degree in aerospace engineering, mechanical engineering, or a closely related discipline is the minimum requirement. Many engineers enhance their credentials with master's degrees in specialized areas like orbital mechanics, propulsion, or composite structures. New graduates typically start as associate or junior engineers on large programs, contributing to specific subsystems under senior engineer guidance. After 5-8 years, strong performers lead subsystem design efforts and earn staff engineer or senior engineer titles. The path diverges around the 10-year mark — some pursue technical fellow or principal engineer tracks, becoming deep technical authorities, while others move into engineering management and program management. Professional Engineer (PE) licensure, while less common in aerospace than civil engineering, is valued for consulting and leadership roles.
Specializations
Aerodynamics engineers optimize airflow around vehicles using computational methods and wind tunnel testing. Structural engineers design load-bearing components, selecting materials and configurations that withstand flight stresses while minimizing weight. Propulsion engineers develop and test engines — from turbofan jet engines to liquid-fueled rocket motors and ion propulsion systems. Avionics and flight systems engineers design electronic control, navigation, and communication systems. Orbital mechanics engineers calculate spacecraft trajectories, orbital transfers, and mission profiles. Materials engineers develop and test advanced composites, high-temperature alloys, and thermal protection systems. Systems engineers integrate all disciplines, managing requirements, interfaces, and overall vehicle performance.
Pros & Cons
Advantages
- ✓Working on projects that advance human knowledge — space exploration, aviation safety, national defense
- ✓Strong salary with median above $130K and potential to exceed $170K at senior levels
- ✓Intellectually challenging work applying advanced physics and mathematics
- ✓Industry growth driven by commercial space, defense modernization, and sustainable aviation
- ✓Prestige and respect associated with the aerospace engineering profession
- ✓Strong job security with high barrier to entry protecting positions
- ✓Opportunity to see your designs fly — literally watching spacecraft launch or aircraft take flight
Challenges
- ✗U.S. citizenship and security clearance requirements exclude many candidates
- ✗Geographic concentration in aerospace hubs limits location flexibility
- ✗Large program bureaucracy can slow innovation and create frustrating processes
- ✗Defense program classifications restrict what you can discuss about your work
- ✗Program cancellations can eliminate years of engineering work overnight
- ✗Overtime expectations are significant during flight test and launch campaigns
- ✗The transition from engineering to management can disconnect you from technical work
Industry Insight
Aerospace is experiencing a renaissance driven by commercial space competition (SpaceX, Blue Origin, Rocket Lab), next-generation military aircraft programs (B-21, NGAD, MQ-25), space exploration initiatives (Artemis, Mars missions), and advanced air mobility (urban air taxis). Hypersonic weapons development is accelerating across defense agencies. Sustainable aviation — electric propulsion, hydrogen fuel, and sustainable aviation fuels — represents significant R&D investment by commercial manufacturers. Digital engineering transformation is replacing traditional document-based design with model-based systems engineering, digital twins, and AI-assisted optimization. The talent pipeline is strained, with university aerospace engineering programs unable to keep pace with industry hiring demand.
How to Break Into This Career
A strong GPA in aerospace or mechanical engineering, particularly in core courses (structures, fluids, propulsion, controls), is essential for competitive employers. Internships with major aerospace companies, NASA centers, or national labs during undergraduate or graduate studies provide critical experience and often lead directly to full-time offers. Design team experience — SAE AeroDesign, model rocket clubs, CubeSat projects, or Formula SAE — demonstrates practical hands-on capability beyond coursework. Proficiency in MATLAB, Python, SolidWorks or CATIA, ANSYS, and Simulink is expected. For defense positions, U.S. citizenship is required and security clearance eligibility (no significant criminal or financial issues) is necessary. Graduate degrees improve starting positions and provide access to research and advanced development roles.
Career Pivot Tips
Aerospace engineers possess analytical, systems thinking, and problem-solving skills that transfer to virtually any engineering discipline. Common pivots include automotive engineering, medical device development, energy systems, and technology consulting. Systems engineering skills are valued in defense program management, technology startups, and complex systems industries like semiconductor manufacturing. Computational skills apply to data science, machine learning, and quantitative finance. Those entering aerospace from mechanical engineering have the smoothest transition — the disciplines share fundamental coursework and analytical methods. Career changers from other fields should pursue master's programs in aerospace engineering, as the specialized knowledge in aerodynamics, propulsion, and orbital mechanics is difficult to acquire independently.
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