NEC Computer Engineering study materials
NEC Computer Engineering study resources

NEC Computer Engineering study plan

NEC Computer Engineering · Give each week a clear focus.

8 weeks · About 6 hours per week

Week 1

Computer Engineering (official domain breakdown not published in source)

  • Map the exam blueprint against your own background and rank topics by personal weakness rather than by textbook order.

  • Build a one-page formula and unit-conversion sheet covering electrical quantities, number systems, and power/energy relations, then verify every entry against a first-principles derivation.

  • Solve 20 basic circuit problems (series/parallel resistance, voltage and current dividers, Thevenin equivalents) without notes and log every error with its root cause.

  • Set up a spaced-repetition deck for constants, definitions, and standard symbols, capped at 15 new cards per day.

Your checkpoint

A weakness-ranked topic matrix plus an error log covering at least 20 solved circuit problems.

Week 2

Computer Engineering (official domain breakdown not published in source)

  • Analyze RLC circuits in both transient and steady-state regimes, deriving time constants and resonant frequency from component values rather than memorizing formulas.

  • Compute AC power quantities including real, reactive, and apparent power, and explain power factor correction numerically for two worked loads.

  • Model a diode and a bipolar transistor in each operating region and calculate bias points for at least three amplifier configurations.

  • Explain operational-amplifier behavior for inverting, non-inverting, and integrator topologies, including slew-rate and bandwidth limits.

Your checkpoint

A worked solutions packet of 12 analog problems (RLC, power, transistor bias, op-amp) with derivations shown step by step.

Week 3

Computer Engineering (official domain breakdown not published in source)

  • Convert between binary, octal, hexadecimal, and two's-complement representations by hand for 8-, 16-, and 32-bit widths, including overflow cases.

  • Simplify Boolean expressions using algebraic manipulation and Karnaugh maps, then confirm each result with a truth table.

  • Design and trace combinational blocks: adders, multiplexers, decoders, and comparators, and state propagation-delay paths.

  • Compare latch and flip-flop timing behavior and identify setup and hold violations in a given timing diagram.

Your checkpoint

A design notebook containing five combinational circuits with truth tables, minimized expressions, and gate-level schematics.

Week 4

Computer Engineering (official domain breakdown not published in source)

  • Trace synchronous sequential machines from state diagram to state table to excitation equations for D and JK flip-flops.

  • Design a counter or finite-state machine with a specified modulus and verify the sequence by hand simulation.

  • Estimate critical-path delay for a small datapath by summing gate and interconnect delays.

  • Complete a timed 40-question mixed drill on number systems, Boolean algebra, and sequential logic under exam conditions.

Your checkpoint

A closed-book mock section scored at 70 percent or better, with a written review of every missed item.

Milestones

Week 4: Score at least 70 percent on a timed 40-question closed-book drill spanning circuits, analog electronics, and digital logic, and show a corrected error log for every miss.