What is Automotive Engineering? Career Description, Salary and Requirements

What is automotive engineering?

Automotive engineering combines principles from mechanical, electrical, electronic, materials, manufacturing and software engineering to create vehicles and mobility systems. O*NET classifies automotive engineers as a detailed occupation within mechanical engineering and describes the work as developing vehicle structures, engines, transmissions and other systems, then directing their construction, modification or testing.

The field includes passenger cars, commercial vehicles, motorcycles and specialized vehicles. Some engineers work for vehicle manufacturers, while others work for suppliers, engineering consultancies, test laboratories, government agencies, software companies or research organizations.

What does an automotive engineer do?

Responsibilities depend on specialty and seniority, but common activities include:

• Translating customer, regulatory and business needs into technical requirements

• Creating vehicle or component designs with computer-aided design tools

• Building mathematical models and simulations

• Planning and conducting laboratory, proving-ground or road tests

• Analyzing performance, reliability, safety and failure data

• Selecting materials and manufacturing processes

• Coordinating with suppliers and manufacturing teams

• Documenting specifications, changes and test results

• Investigating defects and proposing corrective actions

• Reviewing designs for cost, weight, efficiency and compliance

• Communicating technical tradeoffs to nonengineering stakeholders

An engineer rarely designs an entire vehicle alone. Projects require collaboration among specialists in structures, propulsion, controls, thermal systems, software, manufacturing, quality and human factors.

Automotive engineering specialties

Vehicle design and integration

Integration engineers coordinate how systems fit and function together. A change in battery location, for example, can affect structure, cooling, weight distribution, crash performance and serviceability.

Powertrain engineering

Powertrain engineers develop systems that generate and transmit power. Work may involve internal-combustion engines, hybrid systems, electric motors, batteries, inverters, transmissions and associated controls.

Chassis and dynamics

These engineers focus on steering, suspension, brakes, tires, handling and ride. They use simulation and testing to balance stability, comfort and performance.

Body and structural engineering

Structural engineers design the vehicle body, frame and crash-management structures. They consider strength, stiffness, weight, materials, corrosion, manufacturing and occupant protection.

Thermal engineering

Thermal engineers manage heat in engines, batteries, electronics, cabins and charging systems. Effective thermal control affects performance, durability, safety and comfort.

Electrical and electronics engineering

This area includes wiring, sensors, controllers, power distribution, lighting and communication networks. Vehicle architectures have become increasingly complex as software-controlled features expand.

Controls and software

Controls engineers develop algorithms that manage propulsion, braking, energy, stability and other functions. Embedded-software and validation roles require disciplined coding, requirements tracing and testing.

Safety and regulatory compliance

Engineers evaluate crashworthiness, functional safety, cybersecurity, emissions and other regulated requirements. The exact framework depends on the product and market.

Manufacturing engineering

Manufacturing engineers design and improve processes for assembling vehicles and components. They may plan tooling, automation, quality controls and production-line changes.

Testing and validation

Validation engineers create test plans, instrument prototypes, analyze results and determine whether a system meets its requirements. Testing can occur in laboratories, simulation environments, proving grounds and public-road programs under controlled procedures.

Automotive engineer salary

The U.S. Bureau of Labor Statistics does not publish a separate national wage series exclusively for automotive engineers. Because O*NET places the occupation within mechanical engineering, mechanical engineer wages offer a useful—but broader—benchmark.

May 2025 BLS Occupational Employment and Wage Statistics reported the following for mechanical engineers:

• Median annual wage: $104,110

• Mean annual wage: $113,610

• Median hourly wage: $50.05

• 10th-percentile annual wage: $73,990

• 90th-percentile annual wage: $164,340

These figures cover mechanical engineers across industries, not only automotive roles. They describe employee wages and do not guarantee starting pay or total compensation.

Factors that influence salary

Experience and responsibility

Entry-level engineers often work under guidance on defined analysis, design or test tasks. Senior engineers may own subsystems, approve technical decisions, mentor others or lead cross-functional programs.

Specialty

Demand differs across batteries, embedded software, controls, safety, manufacturing and traditional mechanical systems. A scarce skill can support higher compensation when it is relevant to the employer.

Industry and employer

Vehicle manufacturers, suppliers, technology companies, consultancies and government organizations use different pay structures. Bonuses, equity, overtime policies, retirement contributions and health benefits affect total compensation.

Location

Engineering clusters can create strong demand but also higher living costs. Compare local purchasing power, commute, travel and hybrid-work expectations rather than base salary alone.

Education and credentials

A graduate degree may support specialized research or advanced technical work, but it does not guarantee a particular salary. Professional licensure can matter for work involving services to the public or responsibilities governed by state law.

Education requirements

Many automotive engineers enter through a bachelor's degree in mechanical, electrical, automotive, mechatronics, materials or a related engineering discipline. O*NET places the occupation in Job Zone Four and indicates that most roles require a four-year bachelor's degree, although employer requirements vary.

Coursework may include:

• Calculus, differential equations and statistics

• Physics and engineering mechanics

• Thermodynamics and fluid mechanics

• Materials science

• Machine design and manufacturing

• Electrical circuits and controls

• Computer-aided design and engineering

• Programming and numerical methods

• Vehicle dynamics or powertrain electives

• Laboratory design and testing

In the United States, ABET accreditation provides assurance that a college or university program meets the relevant profession's quality standards. Candidates considering licensure should check their state board's education requirements before choosing a program.

Licensing and certification

An entry-level automotive engineering job does not always require a Professional Engineer license. Licensure may become important when an engineer offers services directly to the public, signs regulated engineering documents or performs work for which state law requires it.

The common U.S. pathway can include graduating from an appropriate accredited program, passing the Fundamentals of Engineering exam, completing qualifying supervised experience and passing the Principles and Practice of Engineering exam. Requirements differ by state and discipline, so candidates should use the relevant board's current rules.

Employers and professional organizations may also offer tool, quality or specialty certifications. A certification is useful only when it supports the target role and is recognized by the employer.

Essential automotive engineering skills

Mathematics and physics

Engineers use mechanics, calculus, statistics and physical principles to model behavior and interpret evidence.

CAD and simulation

Computer-aided design and engineering tools help teams define geometry, analyze systems and manage revisions. The exact platforms vary by employer.

Testing and data analysis

Engineers must design valid tests, recognize measurement limits and distinguish a repeatable finding from noise. Clear records support traceability.

Programming and controls

Programming can support automation, modeling, calibration and embedded systems. Software-intensive vehicle features make cross-disciplinary communication increasingly valuable.

Problem-solving

Automotive problems usually involve constraints. Engineers compare options, identify root causes and document why a solution meets defined requirements.

Communication

Design reviews, reports and supplier discussions require precise language. A technically correct answer has limited value if other teams cannot implement it.

Teamwork and project management

Vehicle programs contain interdependent schedules and decisions. Engineers need to manage interfaces, risks and changes across teams.

Safety and ethics

Engineers must recognize when evidence is insufficient, raise concerns and follow testing, confidentiality and regulatory procedures. Schedule or cost pressure does not justify concealing risk.

How to become an automotive engineer

1. Explore the work

Review job descriptions across design, test, controls, manufacturing and quality. Identify which systems and activities interest you before selecting electives or projects.

2. Earn a relevant degree

Complete an engineering program that builds strong fundamentals. Consider accreditation, laboratories, design teams, internship access and graduate outcomes.

3. Build practical experience

Join a vehicle design team, robotics club, research lab or supervised engineering project. Employers value candidates who can explain requirements, tradeoffs, testing and lessons—not only the final prototype.

4. Learn relevant tools

Develop working knowledge of the CAD, simulation, data or programming tools common in your target specialty. Tool expertise should rest on engineering principles rather than memorized commands.

5. Complete an internship or co-op

Practical placements show how engineering changes, quality systems and cross-functional work operate at scale. Follow confidentiality rules when discussing the experience later.

6. Create a technical portfolio

Document selected projects with the problem, your role, requirements, analysis, design decisions, testing and results. Remove proprietary information and make individual contributions clear.

7. Apply for entry-level roles

Search beyond the title “automotive engineer.” Relevant titles include product engineer, validation engineer, controls engineer, design-release engineer, manufacturing engineer and dimensional integration engineer.

8. Continue developing

Vehicle technology and standards change. Engineers may deepen a specialty, move into systems integration, lead programs or pursue graduate study and licensure where relevant.

Automotive engineer versus automotive technician

Automotive engineers design, analyze and validate systems. Automotive service technicians diagnose, maintain and repair vehicles in operation. Engineering technicians may support testing, prototypes and laboratory work between those categories.

All are skilled careers, but the education, daily responsibilities and credentials differ. Choose based on whether you prefer designing systems, supporting engineering work or servicing vehicles directly.

Work environment and career outlook

Automotive engineers may divide time among offices, laboratories, manufacturing plants, supplier sites and test facilities. Some roles involve travel, protective equipment, irregular testing schedules or exposure to prototypes and hazardous energy systems. Training and procedure are essential.

BLS projects mechanical engineer employment to grow 9% from 2024 to 2034, with about 18,100 openings per year on average. This is a broader category, so it is not an automotive-specific forecast. Automation, electrification and complex product integration create opportunities while changing the skills employers seek.

If you need to present a vehicle design project, test review or engineering proposal, Dokie can help organize approved source material into a structured technical deck. A useful sequence can cover requirements, system architecture, alternatives, analysis, test method, results, risks and recommended next steps.

Review every Dokie-generated slide before it is used for a decision. Verify calculations and standards, label assumptions and simulation limits, and never upload proprietary drawings, vehicle data or safety findings without authorization. Dokie can support communication, but qualified engineers remain responsible for technical and safety judgments.

Frequently asked questions

Is automotive engineering a branch of mechanical engineering?

It is commonly treated as a specialization within mechanical engineering, although modern automotive work also draws heavily on electrical, software, materials and manufacturing engineering.

How much do automotive engineers make?

BLS does not publish a dedicated automotive engineer wage series. The May 2025 mechanical engineer benchmark was a $104,110 median annual wage and a $113,610 mean annual wage.

Do automotive engineers need a master's degree?

Not for many entry-level roles. A bachelor's degree is a common requirement. Graduate study may help with specialized research, advanced controls or technical leadership, depending on the employer.

Do automotive engineers need a PE license?

Not for every job. Licensure requirements depend on the work and state law. Engineers providing regulated services or signing certain documents may need a license.

What software do automotive engineers use?

Tools vary by specialty and employer and may include CAD, finite-element analysis, computational-fluid-dynamics, controls modeling, data analysis, requirements management and programming platforms.

Can electrical or software engineers work in automotive engineering?

Yes. Electric vehicles, sensors, communications, controls and driver-assistance features create substantial roles for electrical, electronics, computer and software engineers.