
Industrial Maintenance Engineer Training
This Industrial Maintenance Engineer Training gives you the technical depth and practical tools to keep industrial plants running at peak performance. From mechanical systems and electrical circuits to hydraulics, instrumentation, and reliability engineering, every critical discipline is covered. Build the skills employers need and advance your maintenance career with confidence.
What you will learn:
You will gain a thorough understanding of mechanical, electrical, hydraulic, and pneumatic systems used in industrial facilities. The training covers preventive and predictive maintenance strategies, including vibration analysis, thermography, and oil analysis. You will learn to read engineering drawings, P&IDs, and wiring diagrams, and use CMMS platforms to manage work orders and track KPIs. Reliability engineering tools such as FMEA, RCM, and root cause analysis are included to help you eliminate recurring failures. The curriculum also addresses instrumentation, PLC basics, variable speed drives, and digital maintenance technologies aligned with Industry 4.0.
How you study in practice Industrial Maintenance Engineer Training
How you practise Industrial Maintenance Engineer Training
For companies looking to train their team
With Dedika for Business, the course includes exercises and examples tailored to your own business and the way your company needs.
Course Content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Industrial Maintenance
Foundations of Industrial Maintenance
Lesson 1 • Maintenance Metrics and KPIs
Introduces key performance indicators used to measure maintenance effectiveness. Students connect daily tasks to plant-level performance goals.
Lesson 2 • Plant Systems and Equipment Overview
Surveys mechanical, electrical, and fluid systems found in industrial facilities. Provides the vocabulary needed for all subsequent technical chapters.
Lesson 3 • The Industrial Maintenance Role
Defines the scope, responsibilities, and career paths of a maintenance engineer. Establishes professional context before technical content is introduced.
Lesson 4 • Technical Documentation and Standards
Teaches reading of engineering drawings, P&IDs, and equipment manuals. Accurate document interpretation underpins every maintenance task.
Lesson 5 • Workplace Safety Fundamentals
Covers hazard identification, personal protective equipment, and regulatory safety obligations. Safe work practices are prerequisite to all hands-on activities.
Chapter 2HideHide detailsSee detailsMechanical Systems and Components
Mechanical Systems and Components
Lesson 1 • Fasteners, Fits, and Tolerances
Covers bolt grades, torque specifications, and engineering fits. Correct fastening is the baseline skill for all mechanical assembly work.
Lesson 2 • Seals, Gaskets, and Couplings
Addresses static and dynamic sealing solutions and flexible shaft couplings. Proper sealing prevents contamination and fluid loss across all plant systems.
Lesson 3 • Bearings and Lubrication
Explains bearing types, load ratings, installation methods, and lubrication regimes. Bearing failures are among the most common causes of unplanned downtime.
Lesson 4 • Shaft Alignment Techniques
Teaches dial indicator and laser alignment methods for coupled rotating machinery. Misalignment is a primary driver of bearing and seal failures.
Lesson 5 • Power Transmission Components
Covers belts, chains, gears, and gearboxes used to transmit torque. Students calculate drive ratios and identify wear patterns requiring intervention.
Chapter 3HideHide detailsSee detailsElectrical Systems for Maintenance Engineers
Electrical Systems for Maintenance Engineers
Lesson 1 • Electrical Safety and Regulations
Establishes safe working practices around industrial voltages before any hands-on electrical work. Covers arc flash hazards, approach boundaries, and permit requirements.
Lesson 2 • Control Panels and Wiring Diagrams
Teaches ladder logic diagrams, panel layout, and wire identification conventions. Accurate diagram reading is essential for safe and efficient fault finding.
Lesson 3 • Industrial Motors and Starters
Covers induction motor construction, nameplate data, and starting methods. Motor faults account for a large share of electrical maintenance workload.
Lesson 4 • Electrical Fundamentals Review
Reviews Ohm's law, AC/DC theory, and three-phase power concepts. Provides the theoretical base for motor and control system work in later sections.
Lesson 5 • Electrical Test Instruments and Fault Finding
Develops proficiency with multimeters, clamp meters, and insulation testers. Students apply a structured diagnostic process to locate electrical faults quickly.
Chapter 4HideHide detailsSee detailsHydraulic and Pneumatic Systems
Hydraulic and Pneumatic Systems
Lesson 1 • Hydraulic System Maintenance
Covers oil sampling, filter replacement, seal kits, and pump overhaul procedures. Contamination control is the single most important hydraulic maintenance practice.
Lesson 2 • Fluid Power Principles
Introduces Pascal's law, Boyle's law, and fluid flow fundamentals for both hydraulics and pneumatics. Theoretical grounding enables correct diagnosis of circuit behavior.
Lesson 3 • Hydraulic Components and Circuits
Covers pumps, actuators, valves, and reservoirs within hydraulic circuits. Students read ISO hydraulic symbols and trace circuit operation.
Lesson 4 • Fault Diagnosis in Fluid Power Systems
Applies pressure gauges, flow meters, and thermal imaging to locate hydraulic and pneumatic faults. Students use a structured diagnostic approach on circuit diagrams.
Lesson 5 • Pneumatic Components and Circuits
Addresses compressors, FRL units, actuators, and pneumatic valves. Pneumatic systems are prevalent in automation and require distinct maintenance approaches.
Chapter 5HideHide detailsSee detailsPreventive and Predictive Maintenance
Preventive and Predictive Maintenance
Lesson 1 • Oil Analysis and Wear Debris Monitoring
Covers sampling procedures, laboratory tests, and interpretation of oil analysis reports. Oil condition reveals internal component wear before visible symptoms appear.
Lesson 2 • Preventive Maintenance Program Design
Covers task identification, frequency setting, and work order creation for PM schedules. A well-designed PM program is the foundation of plant reliability.
Lesson 3 • Vibration Analysis Fundamentals
Introduces vibration measurement, frequency spectra, and common fault signatures. Vibration analysis is the most widely used predictive maintenance technique.
Lesson 4 • Thermography and Infrared Inspection
Teaches infrared camera operation and interpretation of thermal images for electrical and mechanical assets. Early heat detection prevents catastrophic failures.
Lesson 5 • Condition Monitoring Program Integration
Combines multiple monitoring technologies into a unified condition-based maintenance strategy. Students set alert thresholds and define corrective action triggers.
Chapter 6HideHide detailsSee detailsInstrumentation and Process Control
Instrumentation and Process Control
Lesson 1 • Control Loop Fundamentals
Introduces PID control theory, loop tuning concepts, and control valve operation. Understanding loop behavior enables faster diagnosis of process upsets.
Lesson 2 • Instrument Calibration Procedures
Teaches five-point calibration, loop calibrators, and calibration record management. Calibration ensures measurement accuracy and regulatory compliance.
Lesson 3 • Sensors and Transmitters
Covers temperature, pressure, flow, and level sensing technologies and their signal outputs. Accurate measurement is the prerequisite for effective process control.
Lesson 4 • PLC Basics for Maintenance Engineers
Covers PLC hardware, ladder logic reading, and I/O diagnostics without requiring programming expertise. Maintenance engineers must navigate PLC systems to isolate faults.
Lesson 5 • 4–20 mA and Digital Signal Standards
Explains analog 4–20 mA loops, HART protocol, and digital fieldbus communication. Signal integrity directly affects control accuracy and fault diagnosis.
Chapter 7HideHide detailsSee detailsReliability Engineering and Root Cause Analysis
Reliability Engineering and Root Cause Analysis
Lesson 1 • Root Cause Analysis Methods
Covers five-why analysis, fishbone diagrams, and fault tree analysis for failure investigation. Correct root cause identification prevents recurrence rather than just restoring function.
Lesson 2 • Spare Parts and Inventory Optimization
Covers criticality-based stocking, reorder point calculation, and obsolescence management. Correct spare parts availability directly affects mean time to repair.
Lesson 3 • Corrective Action and Failure Trending
Teaches corrective action tracking, effectiveness verification, and failure trend analysis. Closing the loop on RCA findings drives continuous reliability improvement.
Lesson 4 • Failure Mode and Effects Analysis
Teaches FMEA methodology to identify failure modes, effects, and risk priority numbers. FMEA outputs directly inform PM task selection and spare parts strategy.
Lesson 5 • Reliability-Centered Maintenance
Introduces RCM decision logic to select the most effective maintenance strategy for each failure mode. RCM optimizes maintenance effort and resource allocation.
Chapter 8HideHide detailsSee detailsAdvanced Troubleshooting and Maintenance Planning
Advanced Troubleshooting and Maintenance Planning
Lesson 1 • Maintenance Planning and Scheduling
Covers job scoping, resource estimation, critical path scheduling, and backlog management. Effective planning maximizes wrench time and minimizes production impact.
Lesson 2 • Systematic Troubleshooting Methodology
Applies a structured, evidence-based diagnostic process across multi-discipline faults. Systematic methods reduce diagnostic time and prevent misdiagnosis.
Lesson 3 • Shutdown and Turnaround Management
Addresses scope development, contractor coordination, and execution control for planned shutdowns. Turnarounds represent the highest-risk and highest-cost maintenance events.
Lesson 4 • Maintenance Management Systems
Covers computerized maintenance management system configuration, work order workflows, and reporting. CMMS data quality drives reliable KPI reporting and decision-making.
Lesson 5 • Continuous Improvement in Maintenance
Applies lean principles, 5S, and kaizen events to maintenance processes and workshop environments. Continuous improvement sustains reliability gains achieved through earlier chapters.
Your valid completion certificate
This course is for you:
Maintenance technician: ready to step into an engineering-level role with broader responsibilities.
Mechanical or electrical tradesperson: seeking to expand skills across multiple plant disciplines.
Recent engineering graduate: lacking hands-on industrial maintenance context from academic training.
Production operator: wanting to transition into a dedicated plant maintenance and reliability function.
Career changer from construction or field services: bringing transferable technical skills to industrial maintenance.
Junior maintenance planner: needing stronger technical grounding to schedule and scope work accurately.
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