Electrical Engineer Education Requirements: A Comprehensive Guide

Electrical engineering is a dynamic and broad field that focuses on the study and application of electricity, electromagnetism, and electronics. Electrical engineers design, develop, test, and supervise the manufacturing of electrical systems and equipment, playing a crucial role in diverse industries. From smartphones to power grids, if something can be switched on, an electrical engineer likely had a hand in its development. This article provides a comprehensive overview of the educational requirements for aspiring electrical engineers, covering degree programs, essential skills, career paths, and future job prospects.

What Electrical Engineers Do

Electrical engineers are responsible for designing and integrating electronic/electrical systems in diverse industries such as defense, communications, transportation, manufacturing, healthcare, construction, power/energy, and entertainment. They work with a vast array of electric equipment from consumer electronics to electromagnetic devices. Their work involves:

Designing and developing electrical systems and equipment, such as electric motors, radar and navigation systems, communications systems, or power generation equipment.
Designing and developing the components and circuitry of electronic products.
Analyzing the requirements and costs of electrical systems.
Supervising the manufacturing of electrical systems and equipment.
Improving the manufacturing of existing products.
Technical sales, field testing, or trouble shooting.

Electrical engineers are developing the technology needed to power electric cars far beyond the range of today’s batteries and charging stations. They are working on nanoscale devices that have the potential to reshape medical diagnosis and treatment. They are also involved in creating robots powered by artificial intelligence and developing more efficient ways to integrate wind energy onto the grid.

Educational Requirements

Becoming an electrical engineer typically requires a bachelor's degree in electrical engineering, electronics engineering, or a related engineering field. Most employers require that entry-level electrical engineers hold a bachelor-level electrical engineering degree from a program accredited by the Accreditation Board for Engineering and Technology (ABET). ABET accreditation ensures that the program meets required academic standards. Some colleges offer online electrical engineering degrees at the associate through graduate levels.

Bachelor's Degree Programs

A four-year electrical engineering degree prepares students to design and analyze electrical systems. Bachelor's degree coursework typically includes:

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Electrical circuit theory
Digital systems design
Differential equations
Control systems
Computer science

In addition to classroom work, electrical engineering majors can participate in laboratory work and field studies. Cooperative engineering degree programs provide the opportunity to integrate classroom skills in real-world environments through internships.

Some schools offer focused undergraduate electrical engineering programs such as telecommunications engineering or optical engineering.

Curriculum and Course Topics

Coursework in electrical engineering programs includes electrical circuit theory, control systems, and computer science. Course topics may include:

Fundamentals of circuit analysis
International System of Units
Energy conversion
Communications systems
Electromagnetic field theory
Passive microwave circuit design
Radar and RF signal propagation
Ohm's law
Kirchhoff's law

Entry-level math and physics courses are typically prerequisites before students can take specific engineering courses. In upper-level engineering courses, some programs require students to choose a specialization.

Prerequisite Coursework

To be admitted to an electrical engineering program, a student typically needs a strong foundation in math and science. Specific requirements might include:

An overall 2.5 grade point average in critical-tracking courses.
Minimum grade of C in each course of Calculus 1, Calculus 2, Calculus 3, Physics with Calculus 1, Physics with Calculus 2, Differential Equations and General Chemistry.

For a course to be used as a prerequisite for an EEE/EEL-prefixed course, a minimum grade of C is required in the prerequisite course.

Combined Bachelor's and Master's Programs

Electrical engineering students may be able to combine a bachelor's degree and master's degree with a five-year study program.

Master's and Doctoral Degrees

Many electrical engineers also pursue a master’s or Ph.D. degree to specialize in a particular area of electrical engineering. A graduate degree can broaden your educational credentials and improve your marketability in the global workplace. Electrical engineers who hold a master's degree can take jobs as an instructor at colleges and universities or research and development positions at a private firm.

Graduate students often study similar topics as students in a bachelor's program, such as power systems, control systems, and telecommunication systems, but graduate courses go far beyond the materials studied at the bachelor's level and are much more challenging. Additionally, graduate students typically focus on one specific area of electrical engineering and must demonstrate their knowledge on that topic by completing a project or writing a comprehensive thesis.

Individuals with a master's degree in electrical engineering or a related field may choose to pursue a doctorate degree in engineering, which opens up opportunities at the top levels of industry and employment in research or teaching. PhD students spend much of their time completing a research dissertation but are also responsible for taking coursework in a designated specialization. ABET provides a list of expected student outcomes for electrical engineering programs, which apply to PhD-level programs as well as bachelor's and master's degree programs. Students will have taken hundreds of hours of math courses by the time they receive a doctorate in electrical engineering. Doctoral students should understand how most electrical devices work and be able make improvements based on what end users need. In order to analyze what works and what doesn't, doctoral students must research processes and electronics.

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Key Skills and Qualities

Electrical engineers need a combination of technical and soft skills to succeed.

Technical Skills

Problem-solving skills: Strong problem-solving skills are essential for designing and developing complex electrical systems.
Analytical skills: Electrical engineers must be able to analyze complex data and information to identify problems and develop solutions.
Math skills: A strong background in advanced mathematics, like principles of calculus, may introduce students to concepts used in aerospace and other industries.
Computer skills: Electrical and electronics engineers use computer-aided design software to perform engineering tasks. Familiarity with coding languages, such as Python, can assist with programing and testing hardware. Software like MATLAB may be used for analyzing test results.
Knowledge of Electrical Engineering Principles: Learning this field involves circuit design, applied mathematics, developing control systems, programming and Computer-Aided Design (CAD), safety standards knowledge and data analysis.

Soft Skills

Critical thinking: Critical thinking is required to create innovative solutions and improve technical performance of electric systems.
Communication skills: Good communication skills are essential for working with others on engineering projects and breaking down technical concepts with stakeholders.
Teamwork: Many roles are collaborative, requiring teamwork.
Project management skills: Electrical and electronics engineers coordinate project schedules and work processes with other departments and contractors.
Time management skills: It is imperative that electrical engineers have effective project management, multitasking and time management skills.
Initiative: Electrical and electronics engineers must apply their knowledge to new tasks in every project they undertake.
Interpersonal skills: Electrical and electronics engineers must work with others to ensure that their plans are implemented correctly.

Licensing and Certification

Licensure is not required for entry-level electrical and electronics engineer positions. However, all electrical engineers who work in the utility field must be licensed through the Fundamentals of Engineering (FE) exam. Licensure demonstrates competency and professionalism, and it may be required for certain positions, such as those involving public safety.

The Fundamentals of Engineering (FE) Exam

To qualify for licensure, an applicant must have completed a degree from an ABET-accredited engineering program and earn a passing score on the Fundamentals of Engineering (FE) exam. Students can take the FE exam upon graduating with an electrical engineering or related degree. Individuals with a passing grade on the FE are called engineers-in-training (EITs) or engineer interns (EIs) until they pass their Professional Engineer (PE) exam.

The Professional Engineer (PE) Exam

To qualify for the Professional Engineer (PE) exam, EITs must have four years of relevant work experience. Several states require continuing education for professional engineers to keep their engineering licenses, which means engineers must keep abreast of changes in the field even after earning their PE license.

To become an professional engineer, you will need to obtain licensure by passing the FE exam, gaining 4 years of experience and passing the PE exam.

Continuing Education

Several states require continuing education for engineers to keep their licenses. This ensures that engineers stay up-to-date with the latest technologies, standards, and best practices in the field.

Career Paths and Specializations

Electrical engineering is a broad field with many potential career paths and specializations. Electrical engineers commonly specialize in communications, power systems, control systems, or computer hardware.

Communications: A specialization in communications covers information theory, wireless networking, noise suppression, compression and security. Communication moves information from one place to another, via Internet, mobile phones, satellite radio or face-to-face meetings.
Power Systems: Power system engineers design large-scale power systems for commercial, industrial or residential use.
Control Systems: Develop systems that control dynamic systems, such as aircraft or industrial robots.
Computer Hardware: A computer engineering concentration bridges the gap between computer science and electrical systems and focuses on software-hardware integration.

Some graduates work as design engineers in research labs where they help design state-of-the-art electronic circuits, devices, and systems. Others work in a manufacturing environment where they help improve the manufacturing of existing products. Still others may work in post-production jobs where they deal with technical sales, field testing, or trouble shooting.

Industries

Electrical and electronic engineers work in various industries, including:

Engineering services
Research and development
Manufacturing
Telecommunications
Aerospace
Power generation and distribution
Consumer electronics
Federal government

Companies That Hire Electrical Engineers

Apple
Samsung
NVIDIA
Intel
Qualcomm
Texas Instruments
Siemens
General Electric (GE)
Lockheed Martin
Northrup Grumman

Job Outlook and Salary

The Bureau of Labor Statistics (BLS) projects a 9% employment growth for electrical and electronics engineers between 2023 and 2033. A 9% increase is significantly more than the average growth of all occupations which is 4%. There are around 19,000 job openings for electrical and electronics engineers every year. Employment growth is expected as companies increasingly utilize the expertise of engineers for projects involving electrical and electronic devices, systems, and infrastructure. Many of those openings are expected to result from the need to replace workers who transfer to different occupations or exit the labor force, such as to retire.

The median annual wage for electrical engineers was $111,910 in May 2024. The median annual wage for electronics engineers, except computer was $127,590 in May 2024. The highest earners are located in California, Alaska, Massachusetts, the District of Columbia and Washington state.

Accreditation and Standards Organizations

Successful electrical engineers rely on key organizations and standards that help regulate the products and processes within their field of specialty. These organizations promote safety, consistency, and uniformity of devices and systems globally. The more time spent working with electric devices and systems, the more these specifications and codes will become familiar.

American Society for Testing and Materials (ASTM) publishes technical standards for industrial applications
American National Standards Institute (ANSI) publishes global standards for products, services, and processes
International Electrotechnical Commission (IEC) publishes global standards for electrical, electronic and related technologies
International Organization for Standardization (ISO) publishes global standards for goods and services
International Electrical Testing Association (NETA) establishes testing procedures for electric equipment
Insulated Cable Engineers Association (ICEA) publishes standards related to the use of electric power, data and control cable
National Fire Protection Association (NFPA) publishes standards for fire and electrical safety

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