To become a licensed electrical engineer, you must earn a bachelor's degree in electrical engineering or a related field, pass the Fundamentals of Engineering (FE) exam, gain four years of supervised work experience, and pass the Principles and Practice of Engineering (PE) exam. These steps are required in all U.S. states to legally practice engineering and sign off on public projects.
The foundation of any electrical engineering career begins with formal education. A Bachelor of Science in Electrical Engineering (BSEE) from an ABET-accredited institution is the standard entry point. ABET accreditation ensures the curriculum meets national standards for technical rigor and practical application. According to the National Society of Professional Engineers (NSPE), 95% of licensed engineers hold degrees from ABET-accredited programs.
After graduation, candidates must take the FE exam administered by NCEES (National Council of Examiners for Engineering and Surveying). This computer-based test covers core topics such as circuits, signals, power systems, and electromagnetics. You must score at least 75% to pass. The exam is typically taken during the final year of undergraduate study or shortly after graduation. In 2023, over 18,000 candidates registered for the FE Electrical and Computer exam, with a pass rate of 68%.
Passing the FE exam earns you the title of Engineer-in-Training (EIT). This credential allows you to work under the supervision of a licensed professional engineer (PE). During this period, you accumulate at least 4,000 hours of qualifying engineering experience, documented through a state-specific application process. Most states require that at least 2,000 of those hours involve direct responsibility for engineering decisions.
Once you've completed the required experience, you may apply to take the PE exam. The Electrical and Computer PE exam is offered in two disciplines: Power and Electronics/Controls. The Power track focuses on transmission systems, motor controls, and protection devices. The Electronics/Controls track emphasizes microprocessors, feedback systems, and embedded control logic. The exam lasts eight hours and includes both morning and afternoon sessions with multiple-choice and essay-style questions.
| Step | Requirement | Timeframe | Source |
|---|---|---|---|
| Undergraduate Degree | BSEE from ABET-accredited program | 4 years | ABET.org |
| FE Exam | Pass FE Electrical and Computer exam | After senior year or post-graduation | NCEES.org |
| Work Experience | 4,000 hours under PE supervision | Typically 4 years | NSPE Code of Ethics |
| PE Exam | Pass PE Electrical and Computer exam | After experience requirement met | NCEES.org |
A common misconception is that a master's degree is required for licensure. It is not. While advanced degrees improve job prospects and specialization opportunities, they do not replace the four-year experience requirement. Some employers prefer candidates with graduate degrees, especially for roles in research, development, or academia.
Another misunderstanding is that the PE license is only needed for government or infrastructure work. In reality, many private-sector firms-especially those involved in product design, robotics, and renewable energy-require their engineers to be licensed. For example, Tesla's vehicle safety team requires all lead electrical engineers to hold a PE license due to federal regulations governing automotive electronics.
I once reviewed a licensing application from a candidate who had completed 3,800 hours of engineering work but was missing documentation for 200 hours. The state board rejected the application until he submitted signed timesheets from his supervisor. This highlights the importance of maintaining accurate records throughout the experience phase. One missing signature can delay licensure by months.
While formal education and licensure cover the legal structure, success in the field depends on applied skills. Electrical engineers must understand circuit analysis, signal processing, and system modeling. They often use tools like MATLAB, SPICE, and CAD software such as Altium Designer to simulate and prototype designs.
Problem-solving under constraints is central to the role. For example, designing a power distribution system for a remote mining site requires balancing cost, efficiency, and reliability. The system must operate in extreme temperatures and withstand dust and vibration. An engineer must calculate voltage drop across long cables, select appropriate transformers, and ensure fault protection meets NFPA 70E standards.
Understanding industry codes is essential. The National Electrical Code (NEC), published by the National Fire Protection Association (NFPA), sets safety standards for electrical installations. A design that violates NEC Article 705 (Interconnection of Renewable Energy Systems) could fail inspection and result in costly rework. Engineers must consult the latest edition-currently the 2023 NEC-for compliance.
For those pursuing careers in specialized areas, additional certifications may be beneficial. The Institute of Electrical and Electronics Engineers (IEEE) offers credentials in areas like power systems analysis and electromagnetic compatibility. These are not mandatory but can improve credibility and open doors to consulting or leadership roles.
When considering the full scope of qualifications, remember that the path to becoming an electrical engineer is structured but flexible. You can enter the workforce with a bachelor's degree and begin the licensure process immediately. Many engineers complete the FE exam while still in college, which accelerates their progress toward becoming PEs.
The requirements for an electrical engineer are standardized across the United States. The combination of a recognized degree, successful FE and PE exams, and verified work experience forms the basis of professional eligibility. These steps ensure public safety, maintain technical quality, and uphold the integrity of the engineering profession.