Maintenance Planning and Scheduling Training Course

Duration 10 days 21 modules · 65 contact hours
Level Intermediate Certificate on completion
Who attends Maintenance Planners, Maintenance Supervisors and others
Fee from USD 2,200 KSh 190,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 9 Nov 2026 Course code SD-ME-079

Before you join: Participants should understand basic maintenance terminology, work orders, preventive maintenance and the equipment or facilities they support.

Dates & prices

Two start dates a month in every city, and live online on weekdays or weekends. Fees are per participant; classroom fees include tuition, materials, lunch and refreshments, and the certificate.

Suggest a date or city

Showing the next six months. Later dates, other cities and private deliveries for your team are available on request.

Course overview

Poor maintenance planning produces familiar losses: technicians waiting for permits or parts, urgent jobs displacing preventive work, repeated equipment failures, unreliable shutdown dates and overtime used to recover avoidable delay. A disciplined planning and scheduling process converts maintenance demand into prepared, safe and executable work packages, while giving supervisors a credible weekly plan and managers useful measures of performance.

This course develops the methods used to plan, schedule, coordinate and control maintenance work in process plants, utilities, transport fleets, facilities and asset-intensive operations. Participants learn work order quality, job scoping, task sequencing, labour estimation, material identification, permit coordination, backlog control, priority setting, weekly scheduling and schedule compliance analysis. They apply ISO 55000 asset-management principles, ISO 14224 failure-data concepts, criticality analysis, critical path scheduling and maintenance performance measures.

Teaching combines concise instructor briefings with maintenance cases, group analysis, scheduling simulations and individual application work. Participants progressively build a maintenance planning and scheduling pack using realistic equipment, workforce and material constraints. They leave with reusable templates for work orders, job plans, backlog review, weekly schedules, KPIs and a planning improvement plan that can be adapted to their own site.

The course suits maintenance planners, supervisors, engineers, reliability personnel and operations leaders who need more predictable maintenance execution. It is particularly useful where reactive work, overdue preventive maintenance, poor work-order data or low schedule compliance are reducing equipment availability.

What you will be able to do

  • Assess maintenance work requests using scope, priority, criticality and asset-risk criteria
  • Create job plans with task steps, labour estimates, materials, tools and permits
  • Build a controlled maintenance backlog using work-order statuses, ageing and readiness codes
  • Develop weekly and daily maintenance schedules using capacity loading and frozen schedules
  • Apply critical path method techniques to shutdown and major maintenance work
  • Measure planning and scheduling performance using backlog, compliance and productivity indicators
  • Analyse schedule break-ins and identify corrective actions for recurring execution constraints
  • Present a site-specific maintenance planning and scheduling improvement plan

Benefits of attending

For you

  • Produce clearer job plans that technicians can execute without repeated clarification
  • Defend realistic labour and duration estimates using defined planning assumptions
  • Run structured backlog reviews with priorities, readiness checks and ageing controls
  • Create weekly schedules that balance available labour, permits, materials and production windows
  • Use maintenance KPIs to explain schedule failures and recommend corrective action

For your organisation

  • Higher proportion of maintenance work completed as planned and scheduled
  • Reduced technician waiting time for materials, permits, tools and instructions
  • Better protection of preventive maintenance work from urgent-work displacement
  • More reliable shutdown schedules, resource forecasts and material demand visibility
  • Clearer performance evidence for maintenance management review and improvement decisions

Course modules

21 modules over 10 days

Participants can explain the maintenance work-management process and assign accountabilities across its main roles.

  • Maintenance work management model from request through close-out and learning
  • ISO 55000 asset-management principles linked to maintenance value decisions
  • Roles of requester, planner, scheduler, supervisor, stores and technician
  • Work-order lifecycle, status codes, decision rights and handover points
  • Distinguishing reactive, corrective, preventive, predictive and improvement work
  • Planning and scheduling measures: wrench time, backlog and schedule compliance

Participants can assess maintenance requests and define the information needed before planning begins.

  • Minimum work-request data: asset, symptom, location, consequence and urgency
  • Problem statements separating observed condition from assumed repair solution
  • Five Whys questioning used to clarify recurring equipment symptoms
  • Photographs, drawings and operating history supporting accurate work scoping
  • Request screening rules for duplicates, incomplete data and inappropriate priorities
  • Operations and maintenance interfaces during work identification and approval

Participants can assign defensible maintenance priorities using consequence, urgency and asset criticality.

  • Priority matrix combining safety, environmental, production and quality consequences
  • Asset criticality ranking using consequence and probability scoring criteria
  • Urgency versus priority when assigning target completion dates
  • Risk-based maintenance decisions for degraded but operating equipment
  • Escalation criteria for immediate response and emergency work authorization
  • Priority-code governance preventing routine work from becoming artificial emergencies

Participants can convert approved work requests into clear, bounded maintenance job scopes.

  • Site inspection sequence for defining physical scope and access requirements
  • Scope boundaries identifying included tasks, exclusions and interface responsibilities
  • Equipment history review before selecting repair, replacement or inspection tasks
  • Bill of work developed from drawings, manuals and field observations
  • Defining acceptance criteria for returned-to-service equipment condition
  • Scope-change controls preventing unapproved additions during work execution

Participants can write job plans that specify safe task sequences, resources and quality checks.

  • Job-plan structure: task steps, craft hours, materials and special tools
  • Task sequencing using predecessor relationships and defined hold points
  • Standard job plans differentiated from asset-specific corrective work plans
  • Quality checkpoints inserted before concealment, testing and equipment release
  • Clear task language describing action, location, component and acceptance criteria
  • Planned-versus-actual feedback used to revise job plans after execution

Participants can estimate labour requirements and balance work against available maintenance capacity.

  • Craft-hour estimates based on task content, access and equipment condition
  • Estimating crew size without confusing elapsed duration and labour hours
  • Allowances for travel, permits, isolation, setup and functional testing
  • Historical work-order data used to calibrate estimating assumptions
  • Weekly capacity calculation from crew availability, leave and productive time
  • Load charts comparing planned craft demand with available labour capacity

Participants can prepare material and service requirements before work enters the weekly schedule.

  • Material take-offs developed from job plans and equipment drawings
  • Bill of materials checked against stock codes, quantities and specifications
  • Kitting process for staging parts, consumables, tools and documentation
  • Long-lead material controls using required dates and expediting triggers
  • External service scopes defining deliverables, timing, competence and acceptance
  • Readiness codes identifying material, tool and service constraints

Participants can integrate safety controls, isolations and operating constraints into maintenance plans.

  • Permit-to-work requirements identified during job planning and scheduling
  • Lockout-tagout steps linked to isolation plans and authorised persons
  • Job safety analysis controls integrated with task sequence and hazards
  • Operations handover requirements before equipment isolation and maintenance release
  • Simultaneous operations reviewed for conflicts, restricted access and hazards
  • Testing and commissioning responsibilities defined before permit closure

Participants can establish a visible, controlled maintenance backlog with actionable work categories.

  • Backlog categories separating approved, planned, ready, scheduled and deferred work
  • Backlog age analysis identifying stale work orders and review thresholds
  • Ready backlog measured in weeks by craft and priority
  • Weekly backlog review agenda covering risk, readiness and capacity
  • Deferral decisions documented with rationale, controls and revised review dates
  • Backlog cleansing rules for duplicates, completed work and obsolete requests

Participants can plan preventive maintenance work to protect compliance and reduce avoidable reactive demand.

  • Preventive maintenance task review using failure modes and task purpose
  • Calendar-based and meter-based triggers selected for appropriate asset conditions
  • Maintenance routes grouped by location, craft and access requirements
  • PM compliance measures separated from completion quality and effectiveness
  • Overdue preventive work assessed using risk and criticality criteria
  • Seasonal maintenance requirements incorporated into rolling maintenance plans

Participants can construct weekly schedules from ready work, labour capacity and operating windows.

  • Weekly scheduling cycle from backlog selection through schedule release
  • Frozen schedule periods protecting planned work from casual changes
  • Schedule loading by craft, shift, location and available hours
  • Work selection rules balancing priority, age, readiness and production opportunity
  • Daily coordination meetings confirming permits, access and emerging constraints
  • Supervisor acceptance of schedules before release to maintenance crews

Participants can manage daily work execution while preserving the integrity of the weekly schedule.

  • Daily dispatch board showing assigned work, status and schedule changes
  • Morning coordination routines confirming labour, permits, materials and access
  • Break-in work criteria distinguishing urgent response from poor planning
  • Schedule changes recorded with reason codes and authorisation levels
  • Crew feedback captured for actual hours, task changes and material issues
  • End-of-day status updates maintaining accurate work-order information

Participants can use critical path logic to plan and control major maintenance work packages.

  • Work breakdown structure developed for shutdown and major maintenance scope
  • Predecessor logic using finish-to-start and start-to-start relationships
  • Critical path method calculations for duration, float and schedule sensitivity
  • Milestones defined for isolation, inspection, repair, testing and handover
  • Resource constraints assessed against critical-path work and specialist availability
  • Recovery actions evaluated after delays to critical maintenance activities

Participants can prepare a controlled shutdown work list, readiness process and execution schedule.

  • Shutdown work-list criteria separating essential scope from desirable improvements
  • Scope freeze milestones controlling late additions and engineering changes
  • Readiness reviews covering drawings, materials, permits and contractor requirements
  • Turnaround work packs assembled for field execution and quality records
  • Daily progress reporting against milestones, critical path and emerging risks
  • Post-shutdown review capturing scope growth, delays and planning lessons

Participants can plan contractor work with defined scope, controls, interfaces and acceptance requirements.

  • Contractor work scopes defining boundaries, deliverables, competencies and exclusions
  • Site induction, permit and supervision requirements built into work packages
  • Interface matrix assigning responsibilities between contractors, operations and maintenance
  • Service-level milestones monitored through daily progress and quality checks
  • Contractor labour loading included within integrated weekly maintenance schedules
  • Completion dossiers checked before acceptance, payment approval and close-out

Participants can define CMMS data standards that support planning, scheduling and maintenance analysis.

  • Mandatory CMMS fields for asset, failure, labour, materials and status
  • ISO 14224 failure-data concepts applied to equipment history coding
  • Failure codes distinguishing component, mechanism, cause and corrective action
  • Work-order close-out standards for hours, quantities, findings and recommendations
  • Master-data controls for equipment hierarchy, task lists and material records
  • Data-quality audits identifying missing, inconsistent and misleading maintenance information

Participants can calculate and interpret measures that show planning quality and schedule execution performance.

  • Schedule compliance calculated from completed scheduled work and approved changes
  • Planned work percentage measured using defined planning-quality criteria
  • Backlog size reported by craft, priority, readiness and ageing
  • Break-in work percentage analysed by source, urgency and recurring causes
  • PM compliance reviewed alongside overdue risk and work quality
  • KPI review routines linking performance trends to specific corrective actions

Participants can investigate recurring schedule failures and select practical corrective actions.

  • Pareto analysis identifying dominant reasons for schedule non-compliance
  • Five Whys analysis applied to recurring material and access delays
  • Cause-and-effect diagrams organising people, process, equipment and information factors
  • Constraint logs tracking unresolved issues, owners and target completion dates
  • Corrective action plans specifying controls, measures and review dates
  • Learning reviews converting execution feedback into planning-standard improvements

Participants can design governance routines that sustain maintenance planning and scheduling discipline.

  • Work-management meetings defined by purpose, attendees, inputs and decisions
  • RACI matrix assigning accountability for planning, scheduling and execution
  • Standard operating procedures controlling work-order status and handoffs
  • Maturity assessment identifying priority gaps in work-management process discipline
  • Improvement roadmap sequencing quick fixes, capability building and system changes
  • Management review packs linking maintenance measures to operational performance

Participants can align maintenance planning priorities with asset strategy, risk and operating objectives.

  • Maintenance strategy links between asset criticality, failure modes and job plans
  • Risk register inputs used when prioritising deferred maintenance work
  • Reliability-centred maintenance outputs translated into planned maintenance activities
  • Bad-actor equipment reviewed using repeat work orders and downtime history
  • Operating windows negotiated from production plans and equipment constraints
  • Capital replacement decisions distinguished from recurring maintenance scope

Participants can build, review and present a complete maintenance planning and scheduling pack for a defined asset area.

  • Asset-area case data reviewed for demand, risk, capacity and constraints
  • Work requests screened using priority, criticality, scope and readiness criteria
  • Job plans prepared with tasks, labour, materials, permits and acceptance checks
  • Backlog analysis produced using age, status, craft and risk categories
  • Weekly schedule built with capacity loading, frozen work and contingencies
  • Performance measures selected for compliance, backlog, break-ins and planned work
  • Improvement actions presented with owners, milestones and governance routines

Exercises and examples are adapted to each cohort's sectors and roles.

What you take back to work

  1. Maintenance work-request quality checklist
  2. Maintenance job-plan template
  3. Backlog review and ageing dashboard
  4. Weekly maintenance scheduling board
  5. Shutdown readiness review checklist
  6. Maintenance planning improvement roadmap

Who should attend

  • Maintenance Planners — need repeatable methods for preparing executable maintenance work
  • Maintenance Supervisors — need realistic weekly schedules and clearer crew coordination
  • Maintenance Engineers — need better work data to improve recurring equipment problems
  • Reliability Engineers — need planned-work discipline to protect preventive maintenance strategies
  • Operations Supervisors — need coordinated maintenance windows and reduced production disruption
  • Maintenance Managers — need measures and governance for improving work execution performance

Skills and tools covered

Work order planningBacklog managementWeekly schedulingShutdown coordinationMaintenance KPI analysisJob plan development

Tools and standards

ISO 55000, ISO 14224, SMRP Best Practices, Critical Path Method

How the course runs

Training methodology

The course uses short technical briefings followed by realistic maintenance planning cases. Participants review work requests, define job scopes, prepare task lists, estimate resources, check materials and construct backlog and weekly schedules. Group exercises examine competing priorities, production constraints, permits and schedule break-ins. Scheduling simulations show the effects of poor readiness and overloaded labour capacity. Individual application planning helps each participant adapt templates, measures and governance routines to a current maintenance work-management issue.

Requirements and prerequisites

Participants should understand basic maintenance terminology, work orders, preventive maintenance and the equipment or facilities they support. Experience working in maintenance, engineering, operations, reliability, stores or shutdown coordination is expected. Participants should be able to read a simple maintenance work order and discuss labour, materials, access and safety constraints. Familiarity with a computerised maintenance management system is useful but not required. No advanced mathematics, project-management certification, specialist reliability qualification or prior scheduling software experience is required.

A typical training day

08:30 – 10:30First session
10:30 – 10:45Refreshment break
10:45 – 12:30Second session
12:30 – 13:30Lunch and networking
13:30 – 15:00Third session
15:00 – 15:15Refreshment break
15:15 – 16:30Workshop and daily review

Live online deliveries follow the same structure in East Africa Time, with shorter screen blocks and longer breaks.

What the fee includes

  • Instruction by a practitioner facilitator
  • Full course workbook and materials
  • Exercise files, templates and case studies
  • Refreshments and lunch on classroom deliveries
  • Certificate of completion
  • Post-course application plan

Frequently asked questions

Participants should have basic familiarity with maintenance work orders and asset or facility operations. The course does not require prior scheduling software training, project-management certification or advanced mathematics.

Bring examples of current work orders, backlog reports, preventive maintenance tasks or schedule issues where organisational policy permits. These materials help participants adapt the course templates to a real maintenance context.

It is designed primarily for maintenance planners, supervisors, engineers, reliability personnel and operations representatives. It also suits maintenance managers seeking a consistent work-management process across teams or sites.

This course focuses on the daily and weekly control of maintenance work from request through close-out. It uses reliability and critical-path concepts where needed, but does not concentrate on failure analysis programmes or full project-management disciplines.

Participants leave with practical formats for job planning, backlog review, weekly scheduling and performance review. They can use these to improve a current asset area, maintenance crew or shutdown preparation process.

The first part establishes work management, job planning, backlog and weekly scheduling foundations. The later part addresses shutdowns, contractors, CMMS data, measures, improvement governance and a final applied planning and scheduling pack.

Questions about this course?

Ask about dates, fees, group bookings or running it for your team. Our training team replies by email.