Intelligence Brief Engineering Sector
Aerospace Engineering
Bachelor's · 4 years
C
Scorecard
- $130,720
- Median salary
- 6%
- Projected growth
- 50/100
- Difficulty
- 4
- Career paths
AI Resilience 66
Overall Score 54
CollegeRanker Degree Outlook Score™
49
out of 100 · C+
Solid Outlook
Composite of earnings, projected growth, demand gap, AI resilience, career breadth, and remote flexibility — CollegeRanker's proprietary degree outlook model.
Supply vs Demand
BalancedMarket Demand48
Graduate Supply52
Supply and demand roughly aligned — projected 6% occupational growth (faster than average).
Salary Trajectory
~1.8%/yrModeled from BLS median wage and occupational growth. Dashed bars are forecast. Illustrative, not a guarantee.
Where Graduates Work
Common Employers
- Lockheed Martin
- Boeing
- General Electric
- Tesla
- Intel
- Raytheon
- Ford
- Caterpillar
Representative employers that commonly hire Engineering graduates — illustrative of where graduates concentrate, not a guarantee.
Industry Mix
- Aerospace & Defense 24%
- Manufacturing 21%
- Technology Hardware 17%
- Energy & Utilities 14%
- Construction & Infrastructure 13%
- Other 11%
Estimated distribution of Engineering graduates across hiring industries.
Executive Summary
- Aerospace Engineering scores 54/100 (C), reflecting a challenging profile among bachelor's programs.
- Median salary of $130,720 reflects competitive earning potential.
- Projected growth of 6% is below the national average.
- AI resilience score of 66 indicates moderate disruption risk across associated careers.
Aerospace Engineering scores 54/100 — C. The strongest dimension is salary (65/100), followed by remote potential (35/100). The biggest challenge: growth (21/100).
Research Insights
- At Risk Future-proof
Aerospace Engineering faces headwinds for long-term value (47/100). Projected growth of 6% is below average. Graduates should develop skills that complement, not compete with, AI-driven workflows.
Score 47 /100 - Decent ROI
Aerospace Engineering offers a moderate ROI (56/100). Salary outcomes are competitive but the path to maximum earning requires additional credentials or specialization.
Score 56 /100 - Narrow Career Breadth
Aerospace Engineering leads to a focused set of career paths (47/100). With 4 primary career trajectories, graduates benefit from clear direction but have less flexibility to pivot.
Score 47 /100
Decision Intelligence
Aerospace Engineering offers solid potential but requires strategic execution — the right concentration, school, and internships matter significantly to the outcome.
Who Benefits Most
Students who value career stability and meet the academic prerequisites. Students who pair this degree with internships and networking outperform peers. The moderate AI risk makes it important to specialize.
Who Should Think Twice
Individuals who dislike mathematics or physics, or who are not passionate about aerospace technology should avoid this degree. Additionally, those seeking a flexible work environment or rapid career progression may find the industry’s demands challenging.
Student Archetypes
- The Aspiring Innovator Recommended
This student is passionate about aerospace technology and eager to contribute to cutting-edge projects. They often seek out internships and hands-on experiences.
- The Practical Engineer Conditional
This student enjoys problem-solving and technical challenges but may be less interested in the theoretical aspects of aerospace engineering.
- The Uncertain Career Switcher Not Recommended
This individual is considering a transition from a different field but lacks a strong background in math or engineering principles.
Economic Importance
Aerospace Engineering plays a vital role in the aerospace and defense industries, driving innovation in aircraft, spacecraft, and defense systems. The market values this degree due to the increasing demand for advanced technologies in aviation and space exploration, as well as the need for more efficient and sustainable engineering solutions.
Scorecard Analysis
Our proprietary scorecard evaluates degrees across five dimensions from BLS wage and growth data, O*NET work context, and standard education requirements.
Strong earning potential
Below-average growth
Moderate barrier
Primarily in-person
Moderate competition
Difficulty Score
50/100
Composite reflecting the combined demands of salary, growth, barrier, remote compatibility, and competition.
AI Resilience Assessment
Automation risk for careers linked to this degree.
Aerospace Engineering faces moderate AI disruption risk (66/100). While AI will automate routine components within many associated careers, core responsibilities still require human oversight and strategic thinking. Upskilling in AI collaboration tools is recommended.
- Domain expertise from this degree provides some protection against full automation.
- AI can handle routine reporting, data aggregation, and first-pass analysis in many associated careers.
- Risk factor: entry-level roles in fields linked to this degree may face headcount reduction as AI handles more data processing.
Intelligence Deep Dive
-
Reality Check
The aerospace sector is highly competitive, and while job growth is projected, it may not translate into immediate opportunities for all graduates. Additionally, many roles require continuous learning and adaptation to new technologies, which can be demanding.
-
Hiring Market Signal
The hiring market for aerospace engineers remains steady, with demand from both defense contractors and commercial aerospace firms. Job seekers should focus on developing practical skills and networking within the industry to enhance their employability.
-
Risk Factors
- High student debt load
- Potential job market saturation in certain regions
- Dependence on government contracts
- Economic downturns impacting aerospace funding
- Geographic concentration of jobs in specific states
-
ROI Timeline
Typically, it takes about 5 to 7 years to fully recoup the investment in this degree, depending on starting salary and debt load. Graduates with higher starting salaries and lower debt will recover their costs more quickly.
What You'll Study
The curriculum is distinctive for its comprehensive coverage of both theoretical and practical aspects of aerospace systems, including hands-on experience with wind tunnel testing and senior design projects. This prepares graduates to tackle complex engineering challenges in real-world aerospace applications.
The academic experience in Aerospace Engineering typically begins with foundational courses in mathematics, physics, and engineering principles. As students progress, they delve into specialized topics such as fluid dynamics, materials science, and propulsion systems. Labs and projects are integral to the learning process, where students apply their theoretical knowledge to real-world problems, often culminating in a capstone project that showcases their skills.
Internships are also a critical component, providing students with valuable industry experience and professional networking opportunities. The coursework can be challenging, particularly in advanced mathematics and engineering concepts, but these difficulties prepare students for the rigorous demands of the aerospace industry.
Typical Curriculum
- Aerodynamics
- Propulsion
- Orbital Mechanics
- Structural Analysis
- Flight Controls
- Materials
- Wind Tunnel Testing
- Senior Design
Career Pipeline
From entry to executive.
Entry-Level
- Junior Aerospace Engineer
- Propulsion Engineer I
- Flight Test Engineer I
- Systems Engineer I
Mid-Career
- Aerospace Engineer
- Senior Propulsion Engineer
- Flight Test Engineer II
- Systems Engineer II
Advanced
- Lead Aerospace Engineer
- Senior Systems Engineer
- Engineering Manager
Pipeline Insight
Graduates typically advance from entry-level roles to mid-career positions through gaining experience and proficiency in specialized areas. Those who excel often develop strong problem-solving skills and leadership abilities, distinguishing themselves from peers who may remain stagnant.
Career Outcomes
Graduates with a degree in Aerospace Engineering typically find employment as Aerospace Engineers, Flight Test Engineers, Propulsion Engineers, or Systems Engineers. The median salary for these roles is around $130,720, and the projected job growth is about 6% over the next decade. This demand is driven by advancements in technology and the ongoing need for innovation in both commercial and defense sectors.
- Aerospace Engineer
- Flight Test Engineer
- Propulsion Engineer
- Systems Engineer
Compensation Context
The median salary for Aerospace Engineering graduates is driven by the high level of technical expertise required and the limited supply of qualified engineers in the field. Compensation can vary significantly based on factors such as geographic location, the specific sector (defense vs. commercial), and the individual's experience level.
Alternative Routes
Similar or competing pathways students consider alongside Aerospace Engineering:
- Mechanical Engineering
- Electrical Engineering
- Aerospace Technology Associate's Degree
- Self-taught coding/programming in aerospace applications
- Advanced Certificates in Aeronautics
Getting In & Timeline
Typical time to complete: 4 years full-time
- High school diploma or equivalent
- Strong background in mathematics and science, particularly physics
- Completion of prerequisite courses in calculus and physics
Advice
Prospective students should focus on building a strong math and science foundation in high school to prepare for the rigorous coursework.
Is This Degree Worth It?
The degree often pays off for those who are committed to a long-term career in aerospace, as the median salary is relatively high compared to other engineering fields. However, students should consider the significant debt burden and the competitive job market, which may not favor all graduates.
Schools With Strong Outcomes in Engineering
Ranked by median graduate earnings 10 years after enrollment. Schools grouped into tiers by outcome level.
Top Tier2schools
Strong Outcomes2schools
Explore More Degrees
Methodology & Data Sources
Every score, grade, and verdict on this page is built from a consistent framework designed to answer one question: what is the expected return on this degree?
Scorecard dimensions. We evaluate programs on five proprietary axes — Salary, Job Growth, Education Barrier, Remote/Online Compatibility, and Competition — each normalized to a 0–100 scale. The Overall Score is a weighted composite: salary (30%), job growth (20%), AI resilience (15%), barrier proximity (15%), competition inverse (10%), and career breadth (10%). Letter grades follow a standard scale from A+ (95+) down to F.
AI Resilience. Measures automation risk across the degree's associated career pathways. Each degree receives a category-level baseline adjusted upward for AI-adjacent fields (e.g., machine learning, computer science) and downward for fields with higher routine-task exposure. The score represents the degree's resistance to labor-market disruption, not a prediction of elimination.
Verdict scores. Future-Proof, ROI, and Career Breadth are secondary composites weighting AI resilience, growth, salary, barrier, and career count to answer specific decision questions: is this career durable (Future-Proof), financially worthwhile (ROI), and flexible (Career Breadth)?
Data sources. Salary and growth figures are drawn from the Bureau of Labor Statistics Occupational Employment and Wage Statistics (O*NET) and the Occupational Outlook Handbook (2023–2033 projections). Education requirement data and work context scores come from O*NET 28.2. School-level earnings data is sourced from the Opportunity Insights Economic Tracker (median earnings 10 years after enrollment, based on federal tax records). Program rankings and school lists reflect CollegeRanker's proprietary classification and filtering methodology.
This page is built on disclosed, reproducible data. No affiliate bias, no survey-based rankings, no undisclosed weighting.
Data Behind This Page Updated 2025
Source datasets
- U.S. Bureau of Labor Statistics — Occupational Employment & Wage Statistics (OEWS)
- U.S. Bureau of Labor Statistics — Occupational Outlook Handbook, 2023–2033 projections
- O*NET 28.2 — education requirements and work-context data
- Opportunity Insights — earnings 10 years after enrollment (federal tax records)
Methodology
Degrees are scored on five normalized axes — salary (30%), job growth (20%), AI resilience (15%), education barrier (15%), and competition (10%), plus career breadth (10%) — each on a 0–100 scale.
See the full methodology and weights →Confidence notes
- Salary and growth figures come from federal Bureau of Labor Statistics data — administrative wage records and official projections, not surveys.
- AI-resilience scores are computed from O*NET task and work-context data, applied consistently across every program.
- Every measure is normalized to a fixed 0–100 scale, so degrees are directly comparable.
Limitations
- BLS wage data reflect national medians; actual pay varies widely by region, employer, and experience.
- Job growth is a 2023–2033 projection, not a guarantee — labor markets shift with technology and the economy.
- AI-resilience is a directional estimate of automation exposure, not a prediction about any specific role.
- Figures describe typical outcomes for the field, not a promise for any individual graduate.
