MT Crane/Hoisting Operator study plan

Read the load chart sections of a lattice-boom and a telescopic-boom chart and annotate every variable that changes capacity (radius, boom angle, boom length, quadrant, outrigger spread, counterweight, jib, wire rope parts of line).

Compute net capacity for 12 practice scenarios by subtracting the weight of all lifting attachments, hook block, and rigging from gross capacity, then comparing against total load weight.

Explain in writing why the same crane has different capacities in the over-front, over-side, and over-rear quadrants and how to identify the governing quadrant from a chart.

Convert between boom angle, boom length, and radius using a chart's geometry table for 10 given configurations.

Draft a personal one-page 'capacity decision checklist' you will run mentally before every lift.

Practice reading range diagrams and load charts for a jib-equipped configuration and calculate derated capacity for 6 jib lifts.

Identify and label the parts of a shackle, hook, swivel, master link, and synthetic sling from memory, and state the marked working load limit location on each.

Calculate tension in each leg of a two-leg and four-leg bridle for 10 loads at varying sling angles, and state how tension rises as the horizontal angle decreases.

Determine the required sling rated capacity for a given load and angle, applying the appropriate angle factor and a design factor.

Explain when a sling angle below 30 degrees from horizontal requires engineering review or a lift plan.

Select and justify below-the-hook devices (spreader beam, lifting beam, plate clamp, vacuum lifter, concrete bucket) for 8 described loads and note the capacity marking each requires.

Inspect three slings and two shackles in person or via description and record every defect class: broken wires, cuts, abrasion, heat damage, missing tags, distorted hardware.

Describe the function of the major crane components (boom, jib, counterweight, swing drive, hoist drum, boom hoist, outrigger beam, load moment indicator) and how each affects capacity or safety.

Distinguish between a spreader beam and a lifting beam and explain how each changes the load path and the capacity calculation.

Explain how a load moment indicator or rated capacity limiter works and what an operator must do when it alarms.

Evaluate ground bearing for 6 site scenarios by comparing crane ground pressure against soil bearing capacity, and specify mat or cribbing size where needed.

Lay out a crane position for a described site: outrigger fully extended, clear of excavations, level within manufacturer tolerance, and with a documented swing clearance.

Perform a full pre-operational walkaround checklist and record at least 15 checkpoints with the pass/fail criteria for each.

Explain the stability consequences of short-rigging outriggers, uneven ground, and side loading, and state what the load chart requires in each case.

Identify the conditions that require a critical lift plan and list the elements that plan must contain.

Memorize and demonstrate the standard hand signals and voice/radio commands, and state the rule for who may give a stop signal.

Describe the roles of signalperson, rigger, and operator, and the communication protocol when the operator loses sight of the load or signalperson.

State the minimum approach distances to energized power lines for the relevant voltage classes and explain how to establish a spotter and a marked boundary.

Plan a lift near power lines: identify the hazard, calculate required clearance, and document the controls including de-energization or line cover.

List environmental stop-work triggers (wind speed per manufacturer, lightning, visibility, ice, heat) and the operator's authority to refuse a lift.

Apply wire rope rejection criteria: broken wire counts in a lay length, diameter reduction, kinking, core protrusion, and corrosion, and record removal decisions for 6 sample descriptions.

Inspect hook wear (throat opening, twist, cracks), sheave wear, and drum spooling, and state the rejection threshold for each.

Explain the purpose and interval of the different maintenance categories (pre-shift, monthly, annual, and post-incident) and who may perform each.

Trace how a worn or damaged component changes capacity or creates a failure mode, using at least three examples.

Build a personal wear-limit reference card for wire rope, hooks, and slings.

Summarize the operator's legal duties: pre-use inspection, compliance with load charts, refusal of unsafe lifts, and documentation of inspections and lift plans.

Explain how the employer, competent person, signalperson, and operator responsibilities divide on a multi-employer site.

State the recordkeeping and certification expectations for operators, riggers, and signalpersons, and what an operator should verify before accepting a lift assignment.

Rehearse a refusal conversation: write the exact words you would use to stop an unsafe lift and who you would notify.

Review the standards framework (design, inspection, and rigging standards) at a level sufficient to cite the correct document category for a given question.

Complete a timed 60-question mixed practice exam weighted to the domain percentages and review every missed item to root cause.

Re-solve 10 capacity problems and 10 sling-angle problems under time pressure with 90% or better accuracy.

Re-state the standard hand signals and the power-line approach distances from memory without notes.

Consolidate all personal reference cards into a single indexed one-page review sheet.

Identify your three weakest objectives and write a targeted remediation action for each.