MI Elevator Mechanic study plan
MI Elevator Mechanic · Give each week a clear focus.
8 weeks · About 7 hours per week
Elevator and Escalator Code Requirements (ASME A17.1/CSA B44)
Map the structure of ASME A17.1/CSA B44 into its Parts and note which Parts govern electric elevators, hydraulic elevators, escalators, and existing installations
Locate and read the general requirements covering clearance, runby, and top/bottom refuge space for electric elevators
Build a personal index of the 40 most commonly enforced A17.1 clauses and record the section number beside each topic
Practice answering code-lookup questions by finding the exact section number in under 90 seconds
Your checkpoint
A one-page clause index listing at least 40 A17.1/CSA B44 section numbers mapped to plain-language topics, with 20 timed lookup drills logged
Elevator and Escalator Code Requirements (ASME A17.1/CSA B44)
Distinguish the requirements for machine-room, machine-room-less, and overhead machinery space arrangements
Read and summarize the pit, pit ladder, lighting, and access requirements for both electric and hydraulic units
Compare the escalator and moving-walk article requirements against elevator requirements to isolate what differs
Work 60 mixed code questions and write the cited section number next to every missed item
Your checkpoint
A two-column comparison sheet of electric vs. hydraulic vs. escalator code requirements plus a scored 60-question code practice set with section citations for every error
Electrical Theory, Circuits, and Motor Controls & Mechanical Components, Hoisting, and Roping Systems
Solve series, parallel, and combination circuit problems for voltage, current, resistance, and power without a reference sheet
Trace a three-wire control circuit and a reversing starter schematic, identifying every contact and interlock
Explain the operating principle and failure modes of AC and DC hoist motors, including regenerative and dynamic braking
Identify the parts of a traction machine, sheave, deflector sheave, and gearless vs. geared drive from a written description
Calculate roping ratios and the relationship between car speed, sheave diameter, and motor RPM
Your checkpoint
A worked problem set of 25 electrical and roping calculations with all steps shown, plus a hand-drawn, labeled reversing-starter control circuit
Mechanical Components, Hoisting, and Roping Systems
Compare 1:1, 2:1, and 3:1 roping arrangements for car speed, load, and rope travel
Compute rope tension, factor of safety, and the effect of rope count on a given rated load
Describe counterweight sizing and balance and calculate the counterweight needed for a stated car weight and capacity
Explain governor rope, compensation rope, and tie-down arrangements and what each does
Identify wear and rejection criteria for ropes, sheaves, and guide shoes
Your checkpoint
A roping and counterweight worksheet solving 15 problems across three roping configurations, with a written list of rope and sheave rejection criteria
Safety Devices, Governors, and Braking Systems & Hydraulic Elevator Systems
Describe how a governor trips and how the safety mechanism grips the guide rail, including setting speeds and clearances
Explain the difference between instantaneous, gradual, and Type A/B safeties and when each applies
Trace the sequence of events for an ascending-car overspeed and a descending-car overspeed
Identify the components of a hydraulic system: power unit, valve, jack, cylinder, and piping, and explain the function of each
Explain the operation of the check valve, relief valve, lowering valve, and rupture/burst valve and the failure each protects against
Describe plunger, packing, and cylinder inspection points and common leakage causes
Your checkpoint
A labeled hand-drawn governor-and-safety diagram plus a hydraulic power-unit schematic, each annotated with a 150-word explanation of how the device stops the car
Hydraulic Elevator Systems & Maintenance, Inspection, and Testing Procedures
Calculate hydraulic system pressure from load and plunger area and convert between psi and feet of head
Explain the effects of oil temperature and viscosity on hydraulic ride quality and leveling
List the required periodic inspections and tests for electric and hydraulic elevators and the interval for each
Describe the procedure and acceptance criteria for the annual safety test, including governor trip and safety setting
Explain rated load, no-load, and full-speed test conditions and how to document results
Identify what a maintenance record must contain and how to write a defensible inspection finding
Your checkpoint
A one-page annual safety test procedure checklist covering setup, governor trip, safety set, and documentation, plus a sample written inspection finding
Michigan Elevator Safety Rules and Licensing Regulations & Jobsite Safety, Rigging, and OSHA Practices
Outline Michigan's elevator licensing framework: who must hold a license, the license classes, and renewal requirements
Identify the Michigan rules governing inspections, permits, and reporting obligations for elevator contractors and owners
State the Michigan-specific adoption of A17.1 and how it differs from the national edition
List OSHA construction and general-industry requirements that apply to elevator work, including fall protection, lockout/tagout, and confined-space entry into pits
Describe safe rigging practice: sling angles, load ratings, inspection of rigging hardware, and hoisting a machine or controller
Identify the hazards of pit and hoistway work and the controls for each
Your checkpoint
A two-page Michigan rules and jobsite safety summary covering licensing, inspection reporting, fall protection, lockout/tagout, and pit entry, written from memory and then corrected against source material
Elevator and Escalator Code Requirements (ASME A17.1/CSA B44) & Electrical Theory, Circuits, and Motor Controls & Mechanical Components, Hoisting, and Roping Systems & Safety Devices, Governors, and Braking Systems & Hydraulic Elevator Systems & Maintenance, Inspection, and Testing Procedures & Michigan Elevator Safety Rules and Licensing Regulations & Jobsite Safety, Rigging, and OSHA Practices
Take two full-length timed practice exams and record the score by domain
Re-study only the two lowest-scoring domains and re-test those domains
Drill 50 code-lookup questions to rebuild speed on section finding
Review every missed question from weeks 1 through 8 and write the correct reasoning in one sentence each
Confirm exam-day logistics and assemble a one-page formula and reference sheet from memory
Your checkpoint
Two completed timed practice exams with a domain-by-domain score table and a one-page self-written formula and reference sheet
Milestones
Week 2: Score at least 75% on a 60-question code-only practice set and cite the correct A17.1 section for every missed item without looking it up
Week 4: Solve 12 of 15 roping and counterweight problems correctly and explain each wrong answer aloud in under a minute
Week 6: Explain the full governor-trip-to-safety-set sequence and the hydraulic valve failure modes from memory, scoring at least 70% on a mixed 40-question set covering safety devices, hydraulics, and testing
Week 8: Score at least 80% overall on both full-length timed practice exams with no domain below 70%