NICET EPT study plan
NICET EPT · Give each week a clear focus.
8 weeks · About 7 hours per week
Cables, Grounding, and Insulation Systems
Classify at least eight cable constructions by insulation type, jacket, temperature rating, and permitted application, and record the comparison in a reference table
Size feeder and branch-circuit conductors for ampacity with adjustment and correction factors applied across five load scenarios, showing each calculation step
Compute equipment grounding conductor and grounding electrode conductor sizes from overcurrent device ratings for ten cases and cite the governing rule for each
Sketch a grounding and bonding single-line for a service with one separately derived system, labeling every bonding jumper, electrode, and neutral-to-ground connection
Your checkpoint
A ten-problem conductor and grounding sizing worksheet with worked solutions, cited rules, and a one-page cable/insulation comparison table.
Cables, Grounding, and Insulation Systems & Field Testing, Commissioning, and Documentation
Explain insulation resistance testing theory well enough to justify test voltage selection and reading interpretation for low-voltage and medium-voltage equipment
Perform the arithmetic for temperature correction of insulation resistance readings and define pass/fail thresholds for five equipment classes
Sequence a cable fault-location workflow from preliminary insulation test through time-domain reflectometry interpretation, listing the decision point at each step
Draft acceptance test forms for cable and grounding systems that name the instrument, connection points, test duration, and acceptance criterion for each test
Your checkpoint
A completed insulation-resistance test report template populated with representative readings for a three-phase feeder, including temperature correction math and a pass/fail determination.
Field Testing, Commissioning, and Documentation
Write a commissioning plan for a distribution upgrade that lists inspection hold points, energization prerequisites, and witness requirements in execution order
Assemble the pre-energization checkout sequence for a switchboard, covering torque verification, phase rotation, insulation tests, and functional trip checks
Construct a documentation turnover index that maps each test record to the equipment tag it proves out
Differentiate factory, acceptance, and maintenance test intervals and state which records a commissioning package must retain
Your checkpoint
A commissioning test pack for a 480 V switchboard containing the checklist, individual test forms with acceptance criteria, and a tagged turnover index.
Electrical Safety, Codes, and Standards & Power System Fundamentals and Circuit Analysis
Determine shock approach boundaries and select protective equipment for five energized task scenarios using the applicable tables and justified assumptions
Solve twelve series-parallel and three-phase AC circuit problems computing impedance, current, power, and power factor
Convert a one-line diagram into a per-unit impedance model and use it to estimate fault current at two downstream points
Order the lockout/tagout and energized-work permitting steps for a repair task and identify which step is the point of no return
Your checkpoint
A fifteen-problem circuit-analysis and electrical-safety set, self-scored, with every missed item reworked and annotated with the concept it tested.
Power System Fundamentals and Circuit Analysis & Transformers, Switchgear, and Distribution Equipment
Interpret transformer nameplate data and compute full-load currents on both sides for four ratings at their actual voltages
Compare delta-delta, delta-wye, and wye-wye connections and predict the phase shift and harmonic behavior each produces
Use percent impedance and base kVA to estimate available fault current at a transformer secondary and at a downstream panel
Distinguish metal-clad from metal-enclosed switchgear and match interrupting, close-and-latch, and bus bracing ratings to stated system conditions
Your checkpoint
A transformer and switchgear data sheet for a 1500 kVA, 13.8 kV to 480Y/277 V unit showing full-load currents, turns ratio, impedance-derived fault current, and required equipment ratings.
Transformers, Switchgear, and Distribution Equipment & Rotating Machinery and Motor Controls
Compute full-load current, overload protection range, conductor ampacity, and branch short-circuit protection for two motors of different horsepower
Read a ladder diagram and write the plain-language operating sequence for start, stop, seal-in, and interlock branches
Explain reduced-voltage and variable-frequency starting well enough to select the appropriate method for three stated load and utility constraints
List the failure modes a variable-frequency drive injects into a system and the mitigation for each
Your checkpoint
A motor branch-circuit design sheet for one 100 hp and one 25 hp motor, including overload sizing, conductor sizing, protection selection, and a labeled control sequence narrative.
Rotating Machinery and Motor Controls & Protective Relaying, Instrumentation, and Control
Interpret time-current curves to describe coordination between an upstream feeder relay and a downstream device at two fault levels
Propose pickup and time-dial settings for an instantaneous and a time-overcurrent element, stating the constraint each setting satisfies
Calculate CT ratio and burden requirements for a metering and a protection circuit, and explain why the two differ
Scale a 4-20 mA loop across a stated engineering range and convert three milliamp readings into process values
Your checkpoint
A protection settings worksheet for three relays showing proposed pickup and time-dial values, the coordination logic behind each, and a CT/VT sizing summary.
Protective Relaying, Instrumentation, and Control & Electrical Safety, Codes, and Standards & Cables, Grounding, and Insulation Systems & Field Testing, Commissioning, and Documentation
Rank all seven domains by demonstrated weakness using scores compiled from prior weeks' deliverables
Complete one timed mixed-topic practice set and log every error by root cause rather than by topic name
Re-derive from memory the ten formulas and tables most often missed during the eight weeks
Build a one-page exam-day reference sheet limited to items that can be reconstructed in under two minutes
Your checkpoint
An error log from a timed mixed-topic practice set with each missed item reworked, plus a ranked final-week review list and a one-page reference sheet.
Milestones
Week 2: Correctly size conductors and grounding conductors in 10 of 10 cases and explain the difference between an insulation resistance pass and a fail without notes.
Week 4: Score at least 80 percent on the fifteen-problem circuit and safety set, and state all shock approach boundary names and their ordering from memory.
Week 6: Complete both motor branch-circuit designs and the transformer data sheet with no unresolved calculation gaps, and narrate a ladder diagram's sequence without referring to the answer key.
Week 8: Improve timed practice-set score by at least 10 percentage points over week 6 baseline, and show that every logged error has a written correction.