Profession · Full profile

Aerospace Engineer

Aerospace engineers design, test, and analyze aircraft, spacecraft, satellites, and missiles.

Average salary

$134,960

Salary range

$86,700 – $205,890

Training time

4 years full time

Job market

Much faster than average

9/10

Work-life balance

Good

7/10

Aerospace engineers design aircraft, spacecraft, satellites, and missiles along with their critical subsystems. They model aerodynamics, structures, and propulsion using specialized software and evaluate performance in wind tunnels and flight tests. These professionals inspect hardware, verify that safety and regulatory standards are met, and investigate operational failures to propose fixes. Working closely with manufacturing teams and suppliers, aerospace engineers take high-stakes flight hardware from early concepts to certified production.

A workday

A day in the life

What does a workday really look like?

A regular weekday focused on computer-aided modeling, simulation runs, and design collaboration.

8:00 AM
Morning review
Review automated simulation logs and prioritize modeling tasks for the day.
9:00 AM
Aerodynamic modeling
Run structural and aerodynamic simulations using CATIA and Python scripts.
11:30 AM
Team coordination
Meet with manufacturing teams and suppliers to coordinate component tolerances.
12:30 PM
Lunch break
Midday rest.
1:30 PM
Finite element analysis
Conduct structural analysis on wing and fuselage components to confirm load limits.
3:30 PM
Safety and regulatory verification
Check current design iterations against safety standards and regulatory requirements.
4:30 PM
Documentation
Log analysis findings and summarize technical progress for the engineering lead.

Task breakdown

An operational day spent on site conducting physical hardware tests and analyzing test stand data.

7:30 AM
Test facility briefing
Review safety procedures and test protocols with technicians at the wind tunnel.
8:30 AM
Sensor and hardware inspection
Check instrument calibration on the test stand prior to firing.
10:30 AM
Test execution
Monitor live sensor telemetry and propulsion mechanics during active test runs.
12:30 PM
Lunch break
Midday meal break.
1:15 PM
Data analysis
Import test stand data into MATLAB to check aerodynamic pressure curves.
3:30 PM
Hardware examination
Inspect hardware components in the hangar for thermal wear or structural fatigue.
5:00 PM
Failure evaluation meeting
Debrief test leads on test anomalies and discuss proposed design modifications.

Salary data

What do you really earn?

Salary by experience, sector and region.

Minimum

$86,700

Average

$134,960

Maximum

$205,890

Salary by region

Region	Min	Avg.	Max
National	$86,700	$134,960	$205,890
California	$104,370	$157,620	$220,670
Texas	$82,990	$130,270	$195,190
Alabama	$78,660	$127,540	$195,190
Washington	$112,580	$158,370	$207,710
Colorado	$101,970	$156,190	$210,410

Typical benefits

Health insurance

Medical, dental, and vision coverage provided by employers.

Retirement plan with employer match

Company-matched retirement savings programs.

Tuition help for graduate degrees

Financial support to help engineers complete master's degrees or specialized engineering coursework.

Paid time off

Allocated paid vacation, holiday leave, and personal time.

Pathways

Education pathways

Which paths lead to this profession?

Bachelor's degree

4 years full time

Bachelor's degree in aerospace engineering or a related engineering field

Provides core training in aerodynamics, structural mechanics, propulsion, and materials. Employers favor degree programs accredited by ABET. Mechanical and electrical engineering graduates also enter the profession through this pathway.

Costs: About $11,950 a year in average published tuition and fees at a public four-year college for in-state students, and $45,000 at a private nonprofit four-year college
Entry requirements: High school diploma with strong math and physics

Master's degree

1 to 2 years

Master's degree in aerospace engineering

Offers advanced coursework and technical specializations in flight mechanics, propulsion, or computational fluid dynamics. This degree is common for research, analysis, and specialist roles across aerospace organizations.

Entry requirements: Bachelor's degree in engineering

Doctoral degree

4 to 6 years

Ph.D. in aerospace engineering

Focuses on deep research, experimental innovation, and advanced computational mechanics. This degree path is pursued primarily for research lab roles and university teaching positions.

Entry requirements: Bachelor's or master's degree in engineering

Profile

Skills & personality

Is this a good fit for you?

Hard skills

Aerodynamics and fluid dynamicsUnderstanding airflow behavior, lift, drag, and fluid dynamics across different flight regimes.
Structural analysis and finite element analysisEvaluating mechanical stress, structural fatigue, and material strength under extreme flight conditions.
CAD softwareBuilding precise 3D components and assemblies using CAD software such as CATIA, NX, or SolidWorks.
MATLAB and PythonDeveloping scripts and numerical models to simulate flight dynamics and process telemetry data.
Propulsion and flight mechanicsAnalyzing engine thrust, propellant behavior, orbital mechanics, and flight trajectories.
Testing and data analysisPlanning physical tests, gathering sensor measurements, and identifying performance discrepancies.

Soft skills

Analytical thinkingBreaking down intricate system anomalies and finding root causes in complex flight data.
Attention to detailCatching small numerical, mechanical, or regulatory discrepancies that affect passenger or vehicle safety.
Technical communicationExplaining complex aerodynamic equations and test data clearly to technicians, managers, and clients.
TeamworkCooperating with cross-functional groups including machinists, software developers, and suppliers.

Is this a good fit for you?

✓
MethodicalFollows rigorous verification steps to ensure designs meet every safety and quality mandate.
✓
InquisitiveEnjoys diagnosing why physical systems fail and exploring creative design solutions.
✓
ThoroughExamines sensor records and technical drawings closely to prevent overlooked mechanical faults.
✓
AdaptableShifts smoothly between quiet office modeling and active test facility environments.
✓
CollaborativePartners effectively with multidisciplinary engineers, assembly technicians, and vendors.

Market

Job market & outlook

What does the market look like?

Openings per year

3,800

Trend

Growth

+8.3%

AI impact

3/10

Simulation, generative design and AI tools speed up analysis and design options, while engineering judgment, safety sign-off and system integration stay human.

Regional demand

Alabama

High demand tied directly to propulsion development, rocket manufacturing, and defense programs.

10/10

Colorado

Significant hiring demand centered around military space defense, research labs, and satellite design.

10/10

Washington

Extensive demand driven by major commercial aircraft manufacturing and related supplier facilities.

10/10

California

Strong employment base within aircraft production and commercial space launch centers.

6/10

Texas

Substantial concentration of space flight operations and engineering services.

6/10

Growth

Career paths

Where can this profession take you?

Vertical growth

Entry-level aerospace engineer
0-3 years
Assists senior staff by executing simulations, drafting basic components, and reviewing test logs.
Aerospace engineer
3-7 years
Owns vehicle subsystems, analyzes aerodynamic data, and resolves hardware issues with manufacturing teams.
Senior or lead engineer
7-12 years
Leads complex design initiatives, manages test campaigns, and oversees compliance across teams.
Engineering manager or chief engineer
12+ years
Directs engineering departments, oversees budgets and programs, and signs off on high-level vehicle architectures.

Horizontal move

Mechanical engineer
Transitions broad engineering background into general machinery, mechanical design, or thermal systems.
View Mechanical Engineer
Systems or project engineer
Manages overarching schedule, cross-disciplinary integration, and interface requirements for entire programs.
View Project Engineer
Materials engineer
Focuses on developing, testing, and qualifying specialized metals, ceramics, and composites for extreme environments.
View Materials Engineer

Good to know

Practical info

Working hours: Full time, with overtime around design reviews, test campaigns and launches.
Remote work: Hybrid work is possible for design and analysis, but classified defense work and hands-on testing require being on site.
Physical requirements: Mostly office and lab work, with time in manufacturing plants, hangars and test facilities.
Typical employers: Aircraft and parts manufacturers, space launch and satellite companies, defense contractors, federal government and NASA, engineering services firms, and research labs.
Professional associations: American Institute of Aeronautics and Astronautics (AIAA)

FAQ

Frequently asked questions

What does an aerospace engineer do on a typical day?

Aerospace engineers design and test aircraft, spacecraft, satellites, and missiles. On a normal day, they run computer simulations for aerodynamics and structural durability, evaluate technical blueprints, or write specialized analysis scripts. During active test phases, engineers inspect hardware on test stands and examine sensor data to diagnose physical anomalies or verify regulatory safety.

What degree do you need to become an aerospace engineer?

A bachelor's degree in aerospace engineering or a related engineering field is required to enter the profession. Employers look for degrees accredited by ABET. Graduates with bachelor's degrees in mechanical engineering or electrical engineering can also enter the field, while research and specialist roles often call for a master's degree.

Do aerospace engineers need a Professional Engineer license?

A Professional Engineer license is optional for most aerospace engineering roles. Hiring organizations prioritize ABET-accredited degrees, relevant technical software skills, and practical testing experience over formal state licensure. However, defense-related jobs frequently require candidates to obtain a security clearance, which usually mandates U.S. citizenship before working on classified government aircraft or space programs.

Can aerospace engineers work from home?

Hybrid work is possible for design and analysis tasks, but full-time remote work is rare. Engineers can use remote setups to run computer simulations, evaluate data, and draft technical documentation. However, classified defense contracts and hands-on hardware testing in wind tunnels, hangars, and manufacturing facilities require working directly on site.

How will artificial intelligence affect aerospace engineering?

Simulation, generative design, and AI tools speed up analysis and evaluate multiple design options in less time. Although software handles complex computations faster, human engineers remain completely essential. Critical engineering judgment, physical system integration, and final safety sign-offs cannot be automated, ensuring that engineers retain primary responsibility across all flight vehicle programs.

What are the typical working hours for an aerospace engineer?

Aerospace engineers work full time with regular weekday daytime schedules. However, overtime becomes common during major design reviews, wind tunnel test campaigns, and space launch preparations. Critical hardware test sequences and launch windows may also require engineers to work during evening hours, weekends, or scheduled on-call shifts.

Who hires aerospace engineers in the United States?

Typical employers include aircraft and parts manufacturers, space launch and satellite companies, defense contractors, and research labs. Federal government organizations like NASA also employ aerospace engineers directly, while specialized engineering services firms hire them for client programs. These employers operate across varied environments ranging from traditional office spaces to manufacturing hangars and test stands.

Explore further

Related professions

In depth

All about aerospace engineer

The background, context and details.

Daily engineering responsibilities

Aerospace engineers design flight vehicles and their subcomponents. Precision matters. Engineers plan comprehensive test campaigns in wind tunnels and flight facilities, gathering detailed sensor data to verify that every structural component satisfies rigorous civil and military safety regulations before entering service. They model aerodynamic forces and structural behavior using computer simulation tools. Hardware failures happen during development. When experimental hardware breaks on a test stand, engineers investigate the damaged parts and coordinate design fixes with manufacturing personnel and component suppliers. Close collaboration ensures that replacement parts meet strict production certification standards before technicians install them.

Work settings and project hours

Offices and laboratories house most computational engineering activities. Field tasks occur inside hangars and manufacturing plants. Testing demands direct physical presence. Most aerospace engineers work full-time weekday schedules with paid leave. However, critical project milestones alter typical routines. Overtime becomes common around formal design reviews and orbital rocket launches. Active test phases and space flight operations occasionally require weekend or evening hours. Remote arrangements accommodate simulation tasks. Classified defense work requires working on site. Engineers on military programs need federal security clearances, which typically require United States citizenship.

Education and training routes

Entry into the aerospace field requires rigorous technical education and strong high school preparation in mathematics and physics. Most professionals enter through structured university degree programs:

Bachelor's degree in aerospace engineering or related fields like mechanical engineering
Master's degree in aerospace engineering for advanced analysis or specialist roles
Ph.D. in aerospace engineering for university teaching or advanced research positions
Security clearance for classified defense contracting positions

Graduation from an ABET-accredited engineering program remains the primary standard for hiring managers. A Professional Engineer license is optional for most industry roles. Employers focus on practical software proficiencies and hands-on testing experience instead.

Technology and career prospects

Generative design tools and automated simulation programs accelerate preliminary analysis, yet human engineers must still evaluate failure modes, verify physical integration, and sign off on flight safety before any mission proceeds. Human judgment remains essential. Computers cannot replace safety sign-offs. Career opportunities span aircraft manufacturers, space launch companies, defense contractors, NASA, and research laboratories. Engineers who build experience with computational tools and physical flight testing advance into senior technical positions or management. Review job listings with aircraft builders and defense contractors to start an engineering career.