Maintenance Planning and Reliability Engineering Training Course

Course overview

When a critical pump quits without warning, the bill is rarely just the repair. It is the lost production, the emergency spares flown in overnight, and the overtime spent chasing a fault that a planner could have scheduled months earlier. This course sits at the meeting point of the two disciplines that keep that scenario from happening: the reliability engineering that predicts when and why equipment degrades, and the planning-and-scheduling function that turns that prediction into ready, resourced work orders.

You will work through both roles, the reliability engineer and the planner. On the engineering side, failure rate, MTBF, MTTR, and the bathtub curve are treated as working tools, and the course builds toward Weibull analysis, FMEA/FMECA, and reliability-centered maintenance applied as a formal method. On the planning side, it follows the work-order lifecycle from end to end: how a job enters the backlog, how it is estimated and kitted, and how preventive-maintenance intervals are optimized against real failure data instead of calendar habit.

Why this matters

Asset-intensive operators in power generation, refining, water utilities, and process manufacturing have learned that reactive maintenance is the most expensive way to run a plant. A single hour of unplanned outage on a production line can dwarf the annual cost of the reliability effort meant to prevent it, which is why boards now treat maintenance as a source of margin instead of an overhead to be squeezed. The gap between a plant that plans its work and one that firefights shows up directly in availability, in safety incidents, and in the maintenance budget.

The discipline has also matured into a recognized standard. ISO 55000 frames asset management as a clear line of sight from corporate objectives down to individual maintenance tasks, and it expects evidence: failure histories, criticality rankings, and life-cycle cost records instead of opinion. The planner has meanwhile become a specialized post, because scheduling most of a plant's work in advance is a skill in its own right. Sound asset management depends on understanding the whole life of an asset, which is where a broader discipline such as asset lifecycle management in engineering connects to the day-to-day planning covered here.

What you will be able to do afterwards

By the end of the course, participants will be able to:

• Build and level maintenance schedules from a prioritized backlog
• Calculate and interpret MTBF, MTTR, and failure rate
• Read Weibull plots to classify failure patterns
• Facilitate FMEA/FMECA studies and assign risk priority numbers
• Apply RCM logic to choose condition monitoring vs fixed intervals
• Set spare-parts stocking levels and reorder points by criticality
• Benchmark availability, reliability, and life-cycle cost

Course outline

Unit 1: Introduction to Maintenance and Reliability

• Maintenance strategy spectrum: run-to-failure to predictive
• Core terms: MTBF, MTTR, failure rate, bathtub curve
• Planner vs reliability engineer: workflow responsibilities
• ISO 55000's place in asset-management systems

Unit 2: Maintenance Planning and Scheduling

• Work-order lifecycle: request to close-out
• Backlog control: ready, total, weeks-of-work
• Job estimation, task planning, and kitting spares/tools
• Weekly/daily scheduling, crew leveling, ops coordination

Unit 3: Reliability-Centered Maintenance (RCM)

• Functions, functional failures, and failure modes
• RCM decision logic: condition, time, failure-finding tasks
• Criticality ranking to focus RCM effort
• RCM outcomes into schedulable PM task lists

Unit 4: Failure Analysis and FMEA

• FMEA/FMECA worksheet: modes, effects, severity, RPN
• Root cause analysis: five whys, fishbone diagrams
• Fault tree analysis: component events to system failure
• Root causes into design, procedures, maintenance plan

Unit 5: Predictive and Condition-Based Maintenance

• Vibration, oil/wear-debris analysis, infrared thermography
• Alarm/alert thresholds and trends vs P-F interval
• Failure modes suited to condition monitoring
• Sensor data and inspection routes into the planning cycle

Unit 6: Asset Performance and Optimization

• OEE: availability, performance, and quality
• Reliability/availability metrics and PM optimization
• Life-cycle cost: capital, operating, maintenance, disposal
• Weibull analysis for failure distributions, replacement

Unit 7: Spare Parts and Inventory Management

• Spares criticality: stockout consequence, lead time
• Reorder points, safety stock, economic order quantities
• Insurance spares and long-lead items for critical gear
• Spares holding linked to the reliability plan

Unit 8: Digitalization in Maintenance and Reliability

• CMMS and EAM as the system of record
• Failure-coding and asset hierarchies for trustworthy data
• Condition-monitoring data, IoT sensors, Industry 4.0
• Digital twins and analytics for scenario testing

Unit 9: Safety, Compliance, and Risk Management

• HSE requirements, permit-to-work, equipment isolation
• Risk assessment: safety- and environment-critical modes
• Safety-critical equipment and failure-finding tasks
• Regulatory compliance with auditable maintenance records

Unit 10: Cost Management in Maintenance

• Maintenance budget: labor, materials, contracts, overheads
• Cost-benefit: preventive investment vs cost of failure
• True cost of downtime: production, quality, secondary damage
• Lean thinking to remove waste without cutting reliability

Unit 11: Continuous Improvement and Benchmarking

• Benchmarking availability, cost, and schedule compliance
• KPIs and reliability reviews to flag assets for study
• Applying Six Sigma and PDCA cycles to reduce variation
• Bad-actor programs targeting high-loss assets

Unit 12: Capstone Maintenance and Reliability Project

• Critical asset selection: failure history, criticality ranking
• FMECA and Weibull assessment of dominant failure modes
• RCM-derived task list: intervals, spares, labor estimates
• Costed reliability improvement plan and rollout roadmap

How the course is delivered

The format mixes step-by-step review of a documented planning-and-scheduling cycle, interpretation of sample reliability data such as MTBF figures and Weibull plots, and group analysis of an FMEA worksheet. This course is educational and does not confer a reliability-engineering license or certify an asset-management system.

Who should attend

Reliability and maintenance engineers, maintenance planners and schedulers, asset managers, and engineering supervisors form the core audience, together with anyone stepping into a planner or reliability role who needs the methods behind the metrics. It also suits operations and inventory staff who work alongside the maintenance function and want a shared language for reliability decisions.

About EuroQuest International Training

EuroQuest International Training was formed in 2015; its central office is in Bratislava, Slovakia. The schedule has grown past the 1,000-course mark, and some 15,000 professionals have trained with the company. Teaching runs at centers in London, Vienna, Dubai, Barcelona, and Istanbul, giving engineers and planners a nearby place to study to a consistent standard.

Frequently asked questions

Do I receive documentation of completion?

You do: finishing delegates are issued the EuroQuest International Training Certificate of Completion, awarded once the full course has been attended. It records the course completed and is distinct from the professional reliability credentials awarded by engineering societies. Keep it for your continuing-development file.

What background do I need before attending?

A working familiarity with an industrial or facilities maintenance environment is enough. The reliability mathematics, including MTBF and Weibull analysis, is introduced from first principles, so you do not need a statistics background to follow it.

Do I need to know how to code?

No coding is required at any point. The data interpretation uses worked examples, spreadsheets, and printed reliability plots, so you can concentrate on the engineering judgment instead of software.

Related courses

Reliability-focused delegates commonly continue with these related EuroQuest courses:

• Optimizing Maintenance Strategies in Manufacturing
• Asset Management and Equipment Reliability
• Predictive Maintenance and IoT in Industry 4.0
• Safety Engineering and Risk Analysis

Register for this course

Places on each run are restricted so the data-interpretation work stays collaborative. Reserve early if your team plans to attend together, since scheduled dates fill in advance. Book a seat with EuroQuest International Training using the contact details provided here.