Elevator Mechanic (pre-apprentice)

This foundational course prepares pre-apprentice elevator mechanics with the safety credentials, trade mathematics, technical literacy, and professional skills required to enter an IUEC/NEIEP apprenticeship or NAEC CET pathway. Students earn OSHA 10-Hour Construction certification and CPR/First Aid certification while building the measurement, blueprint-reading, and workplace-communication competencies that underpin every subsequent course in the program. Career readiness instruction connects classroom learning to the expectations of union and merit-shop elevator employers.

How the course runs. 7 blocks: OSHA 10-Hour Construction Safety & Elevator Worksite Hazards; Lockout/Tagout, PPE Selection & Permit-Required Confined Space (Pit Entry); First Aid, CPR & AED; Trade Mathematics for Elevator Mechanics; Technical Reading: Blueprints, Schematics & Code Tables; Digital Tools & Industry Technology; Career Readiness & Apprenticeship Pathways.

What competent looks like. Pass the OSHA 10-Hour Construction Industry certification assessment and demonstrate correct lockout/tagout and PPE selection for elevator worksites. Solve trade-math problems involving fractions, decimals, ratios, unit conversions, basic algebra, and geometry as applied to elevator components and specifications. Read and interpret elevator wiring diagrams, hydraulic schematics, and ASME A17.1 code tables at an introductory level using standard industry symbols. Use digital tools—including job-site tablets, basic CAD viewers, and OSHA electronic recordkeeping forms—to locate, record, and communicate technical information. Demonstrate professional workplace behaviors, resume preparation, and interview techniques aligned with IUEC apprenticeship application requirements. Perform hands-on CPR, AED operation, and basic first-aid procedures to current American Heart Association or Red Cross standards.

This course covers the principles, components, installation practices, and maintenance procedures for hydraulic elevator systems used in low-rise commercial and residential buildings. Students learn fluid power fundamentals, hydraulic unit operation, jack and cylinder mechanics, piping, valves, and troubleshooting methods aligned with industry standards. Lesson content maps directly to NEIEP/IUEC apprenticeship entry competencies and NAEC CET exam domains covering hydraulic system knowledge and safe work practices.

How the course runs. 7 blocks: Fluid Power Fundamentals and Pascal's Law; Hydraulic System Components and Circuit Layout; Hydraulic Jack and Cylinder Types, Installation Principles; Lockout/Tagout and PPE for Hydraulic Elevator Work; Hydraulic Valve Operation and Adjustment; Fluid Maintenance: Oil, Filters, and Environmental Compliance; Troubleshooting Hydraulic Elevator Faults.

What competent looks like. Explain the principles of fluid power and Pascal's Law as applied to hydraulic elevator systems, including pressure, flow, and force relationships. Identify and describe the function of all major hydraulic elevator components, including the power unit, control valve, cylinder, jack assembly, and piping. Read and interpret hydraulic schematic diagrams and manufacturer wiring and piping diagrams to trace system circuits. Perform pre-operation inspections, basic fluid level checks, filter changes, and documented maintenance tasks on a hydraulic elevator power unit following manufacturer procedures and ASME A17.1 general requirements. Diagnose common hydraulic elevator faults—including slow descent, excessive pressure, and leaking packing—using systematic troubleshooting procedures and select the correct corrective action. Apply lockout/tagout procedures, PPE selection, and confined-space awareness specific to hydraulic elevator pit work before performing any hands-on task.

Students learn the mechanical, electrical, and safety fundamentals of traction elevator systems, including machine room equipment, suspension ropes, safeties, buffers, and car and counterweight assemblies. Instruction moves from component identification through hands-on inspection and adjustment tasks performed on training rigs and industry-standard equipment. Lesson content maps directly to NEIEP/IUEC apprenticeship entry competencies and NAEC CET exam domains covering traction equipment and ASME A17.1 safety code principles.

How the course runs. 7 blocks: Traction System Overview and Machine Room Equipment; Wire Rope: Construction, Selection, and Inspection; Sheaves, Roping Configurations, and Counterweighting; Guide Rails, Car Frame, Platform, and Counterweight Assembly; Safeties, Governors, and Overspeed Protection; Buffers, Pit Equipment, and Terminal Stopping Devices; Integrated Traction System Inspection and LOTO Field Practice.

What competent looks like. Identify and describe the function of all major components of a geared and gearless traction elevator system, including the machine, sheaves, ropes, car frame, counterweight, guide rails, safeties, and buffers. Calculate rope tension, counterweighting ratios, and mechanical advantage using trade math appropriate to traction system specifications. Inspect wire rope assemblies for wear, broken wires, and proper lubrication in accordance with manufacturer guidelines and ASME A17.1 general requirements. Demonstrate correct lockout/tagout and personal protective equipment procedures before performing any traction system inspection or adjustment task. Read and interpret traction elevator pit, machine room, and hoistway drawings, including parts lists and wiring legends. Explain how governor-actuated safeties, overspeed protection, and terminal stopping devices protect passengers in a traction system.

Students develop a working knowledge of the electrical control systems that govern modern elevator operation, including relay logic, solid-state controllers, microprocessor-based dispatching, and safety circuits. Instruction moves from fundamental electrical theory through hands-on wiring, troubleshooting, and documentation of both hydraulic and traction control panels. Content maps directly to the electrical and controls competency areas tested by the NEIEP/IUEC entry assessment and the NAEC CET exam.

How the course runs. 7 blocks: Electrical Fundamentals and Control Vocabulary for Elevator Systems; Relay Logic and Ladder Diagram Interpretation; Elevator Safety Circuits: Devices, Sequence, and Verification; Solid-State Drives and Microprocessor-Based Controllers; Test Instruments and Measurement Procedures on Control Circuits; Systematic Troubleshooting of Elevator Control Faults; Wiring, Documentation, and Controls Integration Project.

What competent looks like. Read and interpret elevator control schematic diagrams, wiring diagrams, and ladder logic using industry-standard symbols and notation. Identify and describe the function of key control components—relays, contactors, solid-state drives, PLCs, and safety-circuit elements—found in both hydraulic and traction elevator controllers. Trace and verify a complete elevator safety circuit, confirming that each device opens the circuit under its intended fault condition. Apply lockout/tagout procedures and appropriate PPE before performing any wiring, measurement, or inspection task on a live or de-energized controller. Use a digital multimeter and clamp meter to measure voltage, current, resistance, and continuity in elevator control circuits and record findings in a structured lab log. Diagnose simulated controller faults by applying a systematic troubleshooting process and document root cause and corrective action in writing.

This course provides a systematic study of the ASME A17.1/CSA B44 Safety Code for Elevators and Escalators as it applies to pre-apprentice elevator mechanics, covering code organization, key requirements for traction and hydraulic elevators, inspection and testing procedures, and safety devices mandated by the code. Students learn to locate, interpret, and apply code requirements to real equipment and job-site scenarios, building the technical literacy required for both the NEIEP/IUEC apprenticeship entry process and the NAEC CET examination. Emphasis is placed on understanding why each requirement exists, connecting code language to physical components and safe work practices.

How the course runs. 7 blocks: Code Architecture and Purpose: How A17.1 Is Organized; Hoistway, Pit, and Machine Room Requirements; Safety Devices: Traction Elevator Requirements; Hydraulic Elevator Safety Requirements; Periodic Inspections and Witnessing of Tests; Emergency Operations and Firefighters' Service; Code Compliance Field Review and Integrated Application.

What competent looks like. Navigate the ASME A17.1 code structure and locate applicable requirements for traction and hydraulic elevator systems within five minutes of receiving a scenario prompt. Identify and describe the function of all code-mandated safety devices—including safeties, buffers, governors, pressure-relief valves, and interlocks—and state the code basis for each device. Interpret code requirements for hoistway construction, clearances, pit equipment, and machine room conditions and compare them against field conditions to identify non-compliances. Describe the periodic inspection and witnessing-of-test requirements specified in the code and correctly fill out a pre-test checklist for a traction or hydraulic unit. Apply code rules governing emergency operations, firefighters' service, and car leveling to evaluate whether a sample elevator installation is compliant. Demonstrate safe, code-aware work practices on a training elevator, citing the relevant A17.1 rule when directing a correction.

This course develops the safety knowledge and on-the-job hazard-control skills specific to elevator construction and maintenance work, building on the universal safety foundation from Course 1. Students apply OSHA standards, ASME A17.1 general safety requirements, lockout/tagout procedures, confined-space protocols, and fall-protection systems directly to elevator hoistways, machine rooms, and pit environments. Every lesson maps to competency areas tested by both the NEIEP/IUEC apprenticeship entry evaluation and the NAEC CET examination.

How the course runs. 7 blocks: Hazard Recognition in the Elevator Trade Environment; Lockout/Tagout for Elevator Systems; Personal Protective Equipment Selection and Inspection; Permit-Required Confined Space Entry: The Elevator Pit; Fall Protection in Hoistways and at Open Floors; Job Safety Analysis and Incident Documentation; Integrated Safety Simulation: Hoistway Entry and Pre-Task Planning.

What competent looks like. Identify and control the five major hazard categories found in elevator hoistways, pits, and machine rooms using the hierarchy of controls. Execute a compliant lockout/tagout isolation procedure for a hydraulic or traction elevator system, achieving zero-energy state before entering an affected space. Select, inspect, don, and document personal protective equipment appropriate to each elevator-trade task and site condition. Apply OSHA permit-required confined-space entry requirements to elevator pit entry, including atmospheric testing, attendant duties, and rescue planning. Demonstrate compliant fall-protection setup—guardrails, personal fall-arrest systems, and hole covers—for open hoistway openings and working-over-shaft situations. Complete written and hands-on safety documentation (JSA, incident report, lockout log) to the standard expected in a union or contractor apprenticeship program.

Students design, assemble, document, and defend a scaled elevator system integrating hydraulic or traction drive components, a control circuit, and all applicable ASME A17.1 safety devices studied throughout the program. The capstone replicates the planning, installation, inspection, and documentation workflow used by journey-level elevator mechanics on a real job. Successful completion demonstrates job-entry competency aligned with NEIEP/IUEC apprenticeship entry expectations and NAEC CET exam domains.

How the course runs. 4 blocks: Project Scoping, Design, and Hazard Planning; Hands-On System Build and Wiring; Pre-Operation Inspection, Documentation, and Functional Test; Project Documentation Package and Oral Defense Preparation.

What competent looks like. Select and justify appropriate drive type, safeties, and control scheme for a given building scenario using ASME A17.1 general requirements as the governing reference. Fabricate and wire a functional scaled or simulated elevator control circuit, demonstrating correct use of hand tools, wire termination methods, and lockout/tagout procedures throughout. Perform and record a pre-operation safety inspection checklist covering car, hoistway, machine room, and pit zones in the format used by licensed inspectors. Diagnose at least two instructor-introduced faults — one mechanical, one electrical — using a multimeter and logical troubleshooting steps, and document the corrective action taken. Produce a complete project package including a bill of materials, as-built schematic, inspection records, and a written hazard-analysis form meeting trade documentation standards. Present and defend design decisions, inspection findings, and troubleshooting results in a structured oral defense, responding accurately to technical questions from a two-person evaluator panel.

Students complete 162 supervised hours at a licensed elevator contractor or building-maintenance employer, applying classroom knowledge of hydraulic and traction systems, controls, ASME A17.1 code compliance, and trade safety under the direct oversight of a journeyman elevator mechanic or licensed elevator inspector. Daily field logs, a mid-placement employer evaluation, and a final employer evaluation document skill growth and professional conduct. This course bridges pre-apprentice training and the NEIEP/IUEC apprenticeship entry or NAEC CET pathway by providing authentic, credentialed-work-environment exposure.

How the course runs. 4 blocks: Pre-Placement Orientation and Site Safety Briefing; Assisted Observation and Task Participation — Hydraulic and Traction Systems; Mid-Placement Employer Evaluation and Student Self-Assessment; Final Placement Hours, Field-Log Compilation, and Final Employer Evaluation.

What competent looks like. Perform assigned assist-level tasks on hydraulic and traction elevator systems safely and in compliance with ASME A17.1 requirements, as verified by employer evaluation. Demonstrate correct lockout/tagout (LOTO) and PPE selection for every task observed or assisted on site, with zero safety violations recorded across all placement hours. Complete accurate daily field logs that identify the system type, task performed, applicable code area, and tools used for each worksite activity. Communicate professionally with journeymen, supervisors, and building personnel, meeting or exceeding the professionalism standard on the mid-placement and final employer evaluations. Identify and document at least two real-world examples of code-compliance checks or safety inspections witnessed during the placement and relate them to ASME A17.1 sections covered in coursework. Reflect on skill gaps identified during the externship and produce a written professional-development plan aligned with NEIEP/IUEC apprenticeship-year competencies or NAEC CET exam domains.

This course systematically reviews every major content domain tested on the NEIEP/IUEC Apprenticeship Entry assessment and the NAEC Certified Elevator Technician (CET) exam, using mapped topic drills, timed practice sets, and two full-length mock exams with scored debrief. Learners identify personal knowledge gaps, build test-taking strategy, and demonstrate exam-ready competence across safety, electrical theory, hydraulics, traction systems, codes, and trade mathematics before sitting live credentialing exams.

How the course runs. 4 blocks: Domain Mapping and Diagnostic Assessment; Targeted Domain Review: Safety, Electrical, and Trade Math; Targeted Domain Review: Hydraulics, Traction, Controls, and ASME A17.1 Code; Full-Length Mock Exams and Score-Based Readiness Debrief.

What competent looks like. Correctly answer practice questions in each NEIEP/IUEC and NAEC CET exam domain—safety, electrical/electronics, hydraulics, traction, controls, and ASME A17.1 code—at or above the published passing threshold for each credential. Apply OSHA lockout/tagout, PPE selection, and electrical safety rules accurately on scenario-based exam items without reference materials. Solve trade math problems—unit conversion, Ohm's Law, hydraulic pressure and flow calculations, wire sizing, and mechanical advantage—within timed exam conditions. Interpret wiring diagrams, hydraulic schematics, and ASME A17.1 code language to answer code-compliance and troubleshooting items correctly. Use a structured gap-analysis process to locate personal weak domains, prioritize study time, and demonstrate measurable score improvement between the first and final mock exam. Complete a full-length timed mock exam for each credential under realistic conditions and achieve a passing score, demonstrating readiness to sit the live credentialing exams.