- What "FEAD Training" Actually Means
- Who Delivers the Training and Who Can Take the Exam
- The DC Component: 10 Units, 10 Labs
- The AC Component: 6 Units, 6 Labs
- Why the Hands-On Labs Matter
- Mapping Skills to the Published Topic Lists
- Sequencing Your Preparation Around the Domains
- Building Practice Questions That Match the Topics
- Passing Score, Fees, and What Is Not Verified
- After Training: Where the Credential Gets Used
- Frequently Asked Questions
- FEAD training means Festo Didactic's Fundamentals of Electricity coursework, delivered through an NC3-certified instructor at a properly equipped institution.
- The DC component lists 10 units and 10 labs; the AC component lists 6 units and 6 labs.
- Students must complete required hands-on labs and score at least 70% on each certification examination.
- The 36 domains combine two published topic lists with intentional overlap; they are not 36 weighted exam sections.
What "FEAD Training" Actually Means
FEAD Exam Prep uses "FEAD" as shorthand for Fundamentals of Electricity - AC/DC, a Level 1 credential from Festo Didactic delivered through the Festo Industry Certification Program (FICP) in partnership with the National Coalition of Certification Centers (NC3). If you landed here wondering about the name itself, our explainers on what FEAD is and what FEAD stands for cover the basics.
"Training" for this credential is not a self-paced video series you buy online and finish over a weekend. It is structured coursework tied to Festo's curriculum, combining unit-based instruction with hands-on lab exercises, delivered at a participating school or training center. Your preparation has two layers: the formal course your institution runs, and your own supplemental practice to make the concepts stick.
This article walks through what that training covers, how it maps to the published topic lists, and how to use your time around it. For a broader overview of the credential, see our page on FEAD certification.
Who Delivers the Training and Who Can Take the Exam
The NC3Certs End User License Agreement sets out the student-side rules. In summary:
- Students must receive training from an actively certified NC3 instructor.
- That instruction must happen at a properly equipped institution.
- Students must complete the required hands-on labs.
- Students must score at least 70% on each certification examination.
- Exams follow the issuing school's proctoring rules.
- NC3Certs access requires an active email account for two-factor authentication.
Knowledge assessment and practical lab completion are separate requirements. Passing the exam does not excuse unfinished labs, and finishing labs does not substitute for the exam score. If you are comparing paths into the credential, our FEAD requirements guide goes deeper on eligibility.
The DC Component: 10 Units, 10 Labs
Festo's Fundamentals of Electricity - Direct Current (DC) course sheet lists 10 units and 10 labs. These are curriculum quantities. They are not exam question counts, not a timed-exam length, and not a course-hour total, so do not read them as any of those.
The Industry Recognized Certification Topics in the DC sheet (document 272395, EN 2025.09) form Domains 1 through 18 on this site. They fall into a few practical clusters.
Foundations: Safety, History, and Electricity Basics (Domains 1-3)
You start with safe working practice, a short look at the history of electrical engineering, and the core vocabulary: charge, current, voltage, and power.
- Know the hazards of working with energized circuits and the habits that prevent injury.
- Be able to define and relate the basic electrical quantities and their units.
- Do not skip the history topic; it is a published item, even if it is the lightest.
Circuit Laws and Analysis (Domains 5, 6, 8, 17)
This is the calculation backbone of the DC course: Ohm's Law, Kirchhoff's Voltage and Current Laws, series and parallel circuit solving, and electrical resistance.
- Rearrange Ohm's Law fluently for voltage, current, or resistance.
- Apply Kirchhoff's laws to find unknown voltages and currents in multi-branch circuits.
- Reduce series, parallel, and combination networks to equivalent resistance.
- Understand how resistance depends on a conductor's properties.
Measurement and Wiring (Domains 4, 7, 16)
Basic electrical wiring, using measuring instruments (voltmeters, ammeters, ohmmeters), and electrical measurement equipment.
- Know which meter goes in series and which goes in parallel, and why.
- Be comfortable reading a wiring layout and building the circuit it describes.
Components and Electromagnetic Devices (Domains 9-15, 18)
DC capacitors, relays, electromagnetism, magnetism, the DC motor, the solenoid, a survey of electrical components, and troubleshooting.
- Understand how a capacitor stores and releases charge in a DC circuit.
- Trace how a relay uses a small control current to switch a separate circuit.
- Connect magnetism and electromagnetism to how solenoids and DC motors work.
- Recognize power sources, resistors, inductors, capacitors, transformers, switches, relays, and motors on sight.
The AC Component: 6 Units, 6 Labs
The Fundamentals of Electricity - Alternating Current (AC) sheet (document 272396, EN 2025.09) lists 6 units and 6 labs. Its topics make up Domains 19 through 36 here. Again, treat those unit and lab figures as curriculum quantities only.
The AC list revisits some DC themes (safety, laws, instruments, series and parallel solving, troubleshooting) and adds topics that only make sense with alternating current:
- Basics of AC Capacitors (Domain 29): capacitors now behave differently because the voltage keeps reversing.
- Basics of the Inductor, Transformers, Relays, Contactors, and Circuit Breakers (Domain 32): the AC equipment family.
- Basics of Electrical Panels, Fuses, and Distribution Network (Domains 33-35): how power gets distributed and protected.
- Electrical distribution (Domain 25) and Basics of Troubleshooting (Domain 36).
Why the Hands-On Labs Matter
Because labs are a separate requirement from the exam score, they deserve more than a box-checking mindset. The earlier combined Festo program guide (March 2023, revision 031023) describes competencies that go beyond memorizing definitions: reading schematics, constructing circuits, calculating impedance and reactance, taking practical measurements, and finding faults. The January 2022 combined course sheet corroborates that scope.
That means a strong lab habit pays off twice, once for the lab requirement and again for the exam questions that test whether you actually understand circuit behavior.
- Predict before you measure. Calculate the expected voltage or current first, then check it with the meter. A mismatch is a learning opportunity.
- Draw the schematic yourself. Do not just copy the lab diagram; sketching it reinforces symbol recognition.
- Break it on purpose (when your instructor allows). Introduce a known fault such as an open connection and practice isolating it.
- Record what each reading means. A voltage across an open switch tells you something specific; write down what.
Mapping Skills to the Published Topic Lists
One useful way to organize your preparation is by skill type rather than by domain number. The table below groups the published topics by what you are actually being asked to do.
| Skill Type | DC Domains | AC Domains |
|---|---|---|
| Safe practice and vocabulary | 1 Safety, 2 Electrical Engineering History, 3 Electricity Basics | 19 Safety, 20 Basic concepts of electrical circuits, 28 Electricity Basics |
| Calculation and circuit solving | 5 Ohm's Law, 6 Kirchhoff's Laws, 8 Series and Parallel, 17 Electrical Resistance | 21 Ohm's and Kirchhoff's laws, 23 Series and parallel circuits |
| Measuring and wiring | 4 Basic Electrical Wiring, 7 Instruments, 16 Measurement Equipment | 22 Instruments, 30 Measurement Equipment, 31 Basic Electrical Wiring |
| Components and devices | 9 Capacitors, 10 Relays, 13 DC Motor, 14 Solenoid, 15 Components | 27 Components, 29 AC Capacitors, 32 Inductor/Transformers/Relays/Contactors/Breakers |
| Magnetic principles | 11 Electromagnetism, 12 Magnetism | 24 Electromagnetism |
| Distribution and protection | (not a separate DC topic) | 25 Electrical distribution, 33 Electrical Panels, 34 Fuses, 35 Distribution Network |
| Fault-finding | 18 Troubleshooting Electrical Circuits | 26 Troubleshooting, 36 Basics of Troubleshooting |
Notice how heavily the list leans toward applied skills. If you can calculate, measure, and troubleshoot, much of the rest follows. For a compressed recall aid once you have the concepts down, see the FEAD cheat sheet.
Sequencing Your Preparation Around the Domains
Generic scheduling advice is less useful here than a sequence that follows how the topics build on each other. Because the AC material assumes DC fluency, a sensible order runs DC foundations first, then the component and device topics, then AC. This is a suggested arrangement, not an official timeline; your instructor's pacing comes first.
Safety, Basics, and Ohm's Law
- Cover Domains 1-3 and 5 so the vocabulary and core relationship are automatic.
- Do a daily handful of Ohm's Law rearrangements until they take seconds.
Kirchhoff, Series/Parallel, and Resistance
- Work Domains 6, 8, and 17 together, since they feed each other.
- Solve combination circuits by hand, then verify with a meter in the lab.
Instruments and Wiring
- Study Domains 4, 7, and 16.
- Practice meter placement and reading until series versus parallel connection is instinctive.
DC Devices and Troubleshooting
- Cover capacitors, relays, magnetism, electromagnetism, the DC motor, the solenoid, and Domain 18.
- Pair every device with one fault scenario you can describe out loud.
AC Equipment, Distribution, and Protection
- Move to Domains 29 and 32-35: AC capacitors, inductors, transformers, contactors, breakers, panels, fuses, and the distribution network.
- Finish with Domains 26 and 36 on AC troubleshooting.
If you want a fuller plan that includes review routines, our FEAD study guide covers that ground.
Building Practice Questions That Match the Topics
NC3's agreement does not authorize copying or commercial redistribution of its exam bank, lab files, or protected instructional materials, so the right approach is to write or use original practice questions aligned to the published topics. Here are the kinds of tasks worth drilling, framed around the topic names rather than any real exam item:
- Ohm's Law fluency: given two of voltage, current, and resistance, find the third, across a range of unit prefixes.
- Kirchhoff application: find an unknown branch current or voltage drop in a two-loop circuit.
- Equivalent resistance: reduce a mixed series-parallel network step by step.
- Meter connection: identify where a voltmeter and ammeter must be placed to read a given quantity.
- Component identification: name a component from its schematic symbol and state its role.
- Relay and solenoid logic: describe what happens downstream when a coil is energized.
- Fault diagnosis: given symptoms and a reading, state the most likely fault location.
- Reactance and impedance: work simple AC series cases involving capacitors and inductors.
Our practice test platform is built around original questions of this kind, so you can rehearse the reasoning without touching protected material. If you are unsure how demanding the content is, read how hard the FEAD exam is for a realistic picture.
Key Takeaway
Do not memorize answers; memorize procedures. Every calculation topic in this credential (Ohm's Law, Kirchhoff, series/parallel, impedance and reactance) is a repeatable method. If you can show your steps on a blank page, you can handle a question you have never seen.
Passing Score, Fees, and What Is Not Verified
Being precise about what is and is not known will save you from planning around bad numbers.
| Item | Status |
|---|---|
| Student passing threshold | At least 70% on each certification examination (NC3Certs EULA) |
| Hands-on labs | Required and separate from the exam score |
| Student recertification | Not required under current NC3 student terms |
| DC component curriculum | 10 units, 10 labs (curriculum quantities) |
| AC component curriculum | 6 units, 6 labs (curriculum quantities) |
| Exam question counts | Not verified |
| Exam sitting durations | Not verified |
| Student exam fee | Not verified |
| Single combined exam vs. separate component exams | Not established from available sources |
One number that causes confusion: the NC3 agreement mentions a USD $500 annual institutional LMS fee, which is waived for active member institutions. That is a fee charged to schools, not a price a student pays to sit an exam. For the cost picture as it applies to learners, see our FEAD certification cost breakdown, and for the scoring detail see the FEAD passing score page.
After Training: Where the Credential Gets Used
The Level 1 credential is a foundation, not a destination. Because its competencies center on schematic reading, circuit construction, practical measurements, and fault-finding, it supports entry-level work and further technical study in settings where people install, maintain, or troubleshoot electrical and electromechanical equipment. NC3's network is oriented toward technical and industrial training, so the credential tends to be most recognizable in that world.
Be careful with salary expectations. We do not cite earnings figures here because none are published for this credential in the sources we verified. For the career side, explore FEAD jobs, the FEAD salary guide, and the analysis of whether the certification is worth it.
Also note that the credential is part of a larger Festo ladder. The broader FICP capstone does not replace this selected credential, and the DC component alone does not either; both components remain within the combined scope this site covers.
Frequently Asked Questions
Not for the credential itself. NC3's student terms call for training from an actively certified NC3 instructor at a properly equipped institution, plus completion of the required hands-on labs. You can and should supplement that with your own practice, but self-study alone does not satisfy the program requirements.
No course-hour total was verified. What is published is curriculum structure: 10 units and 10 labs for the DC component and 6 units and 6 labs for the AC component. Your institution decides scheduling, so ask your program for its actual hours.
Students must score at least 70% on each certification examination, and must also complete the required hands-on labs. The 80% threshold you may see mentioned applies to instructors, not students.
No. The 36 count enumerates two published preparation topic lists (18 DC and 18 AC), including intentional overlaps. They are unweighted topic lists, not a formal combined-exam blueprint, so do not assume each domain carries equal weight or appears as its own exam section.
Under the current NC3 student terms, student recertification is not required. A secondary O*NET listing flags continuing-education renewal, but that conflicts with the primary NC3 policy, so follow the NC3 student terms and confirm with your school if in doubt.
Good FEAD training combines the structured coursework your institution provides with deliberate lab habits and original practice that mirrors the published topics. Work the domains in a logical order, treat the labs as real skill-building, confirm the unverified logistics with your school, and use the FEAD Exam Prep practice questions to test whether the procedures have truly stuck.