MITO Collision Repair L4 study plan

Map the full Collision Repair domain into sub-areas (structural diagnosis, panel replacement, welding, materials, refinish prep, ADAS/calibration) and rank them by your current confidence

Define the safety envelope for the shop: high-voltage and SRS deactivation, lockout, and personal protective equipment requirements before any teardown begins

Practice reading a damage report and classify damage as direct, indirect, or secondary using a written vehicle case you construct yourself

Build a personal glossary of 25 collision-repair terms in English (unibody, crush zone, sectioning, fishplate, pinch weld) with a one-line definition each

Explain how a unibody absorbs energy and identify which structural members are designed to deform versus stay rigid

Compare measuring methods (datum, centerline, dimension) and state which one you would choose for a given repair scenario and why

Walk through a three-dimensional measuring setup step by step and list the checks that confirm the vehicle is anchored correctly

Diagnose five written misalignment scenarios and predict the likely hidden damage for each

Distinguish repairable from replaceable panels using manufacturer-style criteria you write yourself (gap, access, corrosion, load path)

Sequence a full panel replacement from removal through fit-up, including temporary bracing and gap/flush checks

Describe correct sectioning practice: cut location selection, backing plate or insert use, corrosion protection, and weld-through primer

Identify the joining method (squeeze-type resistance spot welding, metal inert gas brazing, adhesive bonding, rivet bonding) appropriate to each of six written joints

Explain heat input effects on high-strength and ultra-high-strength steel and state where heating is prohibited

List the weld quality checks you would perform on a completed structural joint and the defects each check catches

Describe corrosion protection stages after welding: primer, seam sealer, cavity wax, and underbody coating

Assemble a materials-handling plan for aluminum, including tool separation and galvanic corrosion prevention

Outline refinish prep sequence from bare metal through primer, including sanding grit progression and cleanliness steps

Explain how color matching and blend panels are chosen on a three-stage finish and where blend boundaries should fall

Identify common refinish defects (solvent popping, mottling, orange peel, mapping) and state the cause and correction for each

Describe spray-booth and spray-gun setup variables that change finish quality and how to adjust them

Explain why advanced driver assistance system calibration is required after structural or geometry-affecting repairs and what preconditions must be met first

Describe the difference between static and dynamic calibration and give a scenario suited to each

Sequence a post-repair quality control inspection covering gaps, function tests, water test, and road test

Interpret a written wheel alignment printout and decide whether a thrust-angle or camber deviation indicates structural or suspension damage

Work through ten timed mixed-topic practice scenarios spanning structure, welding, refinish, and calibration

For every missed item, write the underlying principle rather than just the correct answer

Revisit your week-one confidence map and re-rank sub-areas to expose remaining weak spots

Build a one-page formula and specification sheet covering measuring tolerances, weld spacing, and refinish ratios

Take two full-length timed mock exams under exam conditions and record section-level scores

Target your two weakest sub-areas with focused review drawn from your own error log

Recite the safety and calibration decision rules from memory without notes

Finalize a one-page pre-exam summary sheet you can review in the last 48 hours