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IEEE Power Engineering Professional Development Practice Test

140 questions available

IEEE power engineering certification covering power system analysis, power generation, transmission, distribution, and smart grid technologies. Administered by Institute of Electrical and Electronics Engineers. Key domains include Electrical Machinery and Drives, Electrical Safety and Reliability Engineering, Power Electronics and Converters and Power System Analysis and Design.

Certification exam
Professional Level
Practice bank
140 Practice Questions
2 hours 20 minutes Practice Time
Start Practice
The bank 140 Practice questions checked against the official objectives.
qf-import140 practice questionsBlueprint 1.0Bank updated 2026-05-04

Sample Questions

Try a few questions to see what the full exam is like.

Rotating Machines (Transformers, Motors, Generators)

IEEE Std C50.13 (cylindrical-rotor synchronous machines) specifies that the machine must be capable of withstanding negative-sequence current I_2 (continuous, expressed as % of rated stator current) of approximately:

Rotating Machines (Transformers, Motors, Generators)

A 7.5 MVA, 4160 V (delta) / 480 V (wye) transformer has %Z = 5.75% on its own base. What is the maximum symmetrical fault current available at the 480 V secondary terminals from this transformer alone (infinite source assumption)?

Power Quality and Reliability

An industrial facility chooses between an ACTIVE harmonic filter and a PASSIVE 5th-harmonic detuned filter for compliance with IEEE 519. The active filter is preferred when:

Power Quality and Reliability

An industrial facility experiences a 0.4 second voltage sag to 65% nominal due to a remote utility fault. A 50 hp induction motor (Class B, NEMA Premium) is at full load. What is the most likely outcome for the motor?

Power Quality and Reliability

The 'flicker' phenomenon (light intensity variations) is most commonly caused by:

Why This Certification Opens Doors

The transition to a decarbonized, digital, and decentralized grid is fundamentally reshaping the power industry. This exam matters because it directly addresses the critical knowledge required to ensure grid reliability, integrate renewable resources, enhance cybersecurity, and improve resilience against extreme events. The practical value lies in empowering engineers to make informed, safe, and economically sound decisions that affect infrastructure costing billions of dollars and serving millions of consumers. It bridges the gap between academic theory and the complex, real-world problems faced by utilities, developers, and regulators every day.

Exam Blueprint

01Electrical Machinery and Drives
02Electrical Safety and Reliability Engineering
03Power Electronics and Converters
04Power System Analysis and Design
05Power System Economics and Markets
06Protection, Control, and Automation
07Renewable Energy and Distributed Generation
08Transmission and Distribution Systems

Exam Details IEEE-PES

Frequently Asked Questions

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How does this exam differ from the Fundamentals of Engineering (FE) or Professional Engineering (PE) exams?