P01
Criticality before frequency
Maintenance effort should reflect what the asset does to safety, quality, throughput, labour, delivery, and recovery time—not simply how old the machine is.
Maintenance Planning
Titan Maintenance & Reliability Field Manual
Assets · Condition · Parts · Shutdowns
Maintenance planning · machine reliability
Move machine care from emergency response to planned, documented production reliability.
Titan helps manufacturers build maintenance programs around real assets, actual production criticality, OEM requirements, safe work preparation, condition monitoring, spare-parts readiness, CMMS discipline, planned shutdowns, controlled return to service, and the recurring failures that consume capacity.
Protecting the production system
Maintenance is not a collection of reminders. It is a controlled system for preserving required performance.
Reactive repair begins after the production consequence has already arrived. Planned maintenance starts earlier: the asset is identified, its criticality is understood, likely failures are evaluated, the correct task and trigger are selected, parts and labour are prepared, the production window is coordinated, and the machine is returned to service through a defined acceptance process.
Titan’s framework connects operators, maintenance, production, engineering, purchasing, software, tooling, dust collection, utilities, service providers, and management. Exact tasks, intervals, lockout procedures, inspection methods, and repair requirements remain governed by the machine manufacturer, qualified personnel, the employer’s safety program, and applicable regulation.
P02
Manufacturer-first planning
OEM manuals, service bulletins, machine configuration, serial number, software version, and qualified service requirements form the starting point for every task and interval.
P03
Safe isolation is part of the job plan
Lockout, stored-energy control, safeguarding, access, permits, and authorized personnel must be planned before tools, parts, or labour are scheduled.
P04
Plan the work before the shutdown
A maintenance window should begin with approved scope, labour, parts, tools, procedures, access, backups, test material, and return-to-service criteria ready.
P05
Condition matters more than assumptions
Inspection, alarms, vibration, temperature, pressure, vacuum, lubrication, cycle time, quality, and component usage can reveal degradation before a calendar date does.
P06
Parts readiness protects uptime
Critical spares, wear items, consumables, repairables, long-lead components, and approved alternates need ownership, location, reorder logic, and condition control.
P07
Failure history must change the plan
Repeat alarms, emergency repairs, rework, service notes, operator observations, and replaced components should feed back into task content, frequency, training, and design changes.
P08
Return to service is a controlled stage
A repair is not complete until safeguards, settings, lubrication, utilities, tooling, software, documentation, first-piece quality, and production handoff are verified.
Eight maintenance strategies—and where each one belongs.
A mature program does not force every asset into the same calendar-based schedule. The strategy should match criticality, failure behaviour, detectability, production consequence, data quality, and recovery readiness.
Run-to-failure
Used deliberately for low-criticality items where failure has limited safety, quality, production, or repair consequences.
Best fitLow-cost, redundant, visible, quickly replaceable assets with known failure behaviour.
Watch-outsHidden damage, secondary failure, obsolete parts, safety exposure, and unplanned labour can make this a false economy.
Time-based preventive
Tasks performed at fixed calendar intervals based on OEM guidance, regulation, environment, or known degradation.
Best fitFilters, inspections, cleaning, batteries, seals, lubricants, safety devices, and components with age-related risk.
Watch-outsOver-maintenance, premature replacement, missed usage severity, and task completion without meaningful condition checks.
Usage-based preventive
Maintenance triggered by hours, cycles, panels, metres, shifts, tool changes, or production campaigns.
Best fitComponents whose wear follows actual operation more closely than calendar time.
Watch-outsBad counters, resets, mixed-duty cycles, and changes in material or load can distort the interval.
Condition-based maintenance
Work initiated from measured or observed condition such as differential pressure, vibration, temperature, vacuum, current, wear, or quality drift.
Best fitAssets with detectable degradation and a practical inspection or sensor method.
Watch-outsThresholds need baselines, trusted data, trained interpretation, and a defined response—not just another alarm.
Predictive maintenance
Models or trend analysis estimate when performance thresholds may be exceeded so work can be scheduled before functional failure.
Best fitCritical, data-rich assets where avoided downtime justifies sensing, analysis, and validation.
Watch-outsPredictions are only as useful as the data, failure model, uncertainty, and maintenance action they trigger.
Precision and proactive maintenance
Focuses on root causes such as alignment, balance, contamination, fastening, installation, lubrication, heat, dust, or operating practice.
Best fitRepeat failures, vibration, premature bearing wear, inconsistent quality, and chronic component life problems.
Watch-outsReplacing components without correcting the underlying condition preserves the failure cycle.
Shutdown or turnaround maintenance
Concentrated work completed during a planned outage with coordinated production, contractors, parts, testing, and restart.
Best fitMajor inspections, rebuilds, controls work, dust-system service, geometry checks, and tasks requiring extended access.
Watch-outsScope growth, missing parts, late contractors, unsafe overlap, weak restart criteria, and unfinished documentation.
Reliability improvement
Uses criticality, failure modes, history, economics, and engineering changes to reduce recurring loss rather than repeatedly servicing symptoms.
Best fitBottlenecks, chronic faults, difficult access, obsolete controls, poor guarding, contamination, or maintenance-heavy designs.
Watch-outsA redesign or upgrade still requires change control, validation, training, spare-parts updates, and revised standards.
Machine and system families covered by the maintenance plan.
The audit can cover one asset, one production cell, or a plant-wide hierarchy that connects primary machines, automation, dust collection, utilities, software, tooling, and support systems.
A01
CNC routers, nesters, and machining centres
Spindles, tool changers, vacuum systems, lubrication, linear guides, drives, sensors, dust boots, aggregates, controllers, backups, geometry, and machine-specific service intervals.
A02
Beam, panel, and sliding-table saws
Main and scoring assemblies, guides, clamps, pressure beams, carriages, fences, drives, lubrication, extraction, alignment, guarding, and blade-system condition.
A03
Edgebanders and squaring lines
Pre-mill, glue systems, pressure zones, trimming, corner rounding, scrapers, buffing, chains, pads, heating, extraction, cleaning, and consumables.
A04
Wide-belt and brush sanders
Abrasive tracking, contact drums, platens, brushes, belts, feed systems, extraction, pressure systems, calibration, sensors, and finish verification.
A05
Moulders, planers, shapers, and tenoners
Spindles, cutterheads, feed systems, pressure devices, guides, tables, lubrication, extraction, guards, alignment, and profile repeatability.
A06
Drilling, doweling, insertion, and assembly equipment
Drill banks, insertion heads, glue systems, nozzles, clamps, fixtures, feeders, sensors, depth control, cleaning, and spare wear components.
A07
Dust collection and filtration
Fans, drives, filters, differential pressure, cleaning systems, ducts, gates, discharge, bins, fire protection, controls, and housekeeping interfaces.
A08
Material handling and automation
Lifts, conveyors, returns, robots, storage systems, stops, sensors, guarding, interlocks, alignment, chains, belts, rollers, and recovery procedures.
A09
Utilities and support systems
Compressors, dryers, vacuum pumps, chillers, electrical distribution, networks, UPS systems, lubrication systems, and environmental controls.
A10
Software, controls, and production data
Machine backups, PLC/HMI versions, parameters, post processors, tool libraries, recipes, licences, network dependencies, cybersecurity, and restore procedures.
The operating objective
Perform the right maintenance before production loses the required function.
Fixed preventive tasks remain important, but critical equipment can also benefit from usage-based triggers, inspections, alarms, vibration, temperature, vacuum, pressure, differential pressure, quality trends, and component-health information. Condition monitoring should be adopted only when the measurement is trustworthy, the response is defined, and the avoided consequence justifies the effort.
Safety and technical boundary
Maintenance work must follow applicable lockout, safeguarding, stored
energy, electrical, fire, environmental, and qualified-worker
requirements. General planning guidance never replaces manufacturer
procedures or authorized technical work.
01
Define the maintenance objective
Clarify whether the project addresses emergency downtime, a new maintenance program, aging equipment, a shutdown, parts shortages, recurring quality loss, new-machine handoff, CMMS implementation, or a reliability-improvement campaign. Establish the production, safety, quality, labour, and financial outcomes the program must support.
QuestionsWhat loss must be reduced and which machines or systems create it?
BoundariesSites, assets, utilities, software, contractors, shifts, and departments included.
SuccessAvailability, schedule, safety, quality, cost, response, and documentation targets.
02
Build the asset register
Create a controlled record for each asset and maintainable subsystem. Capture manufacturer, model, serial number, age, location, production role, utilities, controls, software version, connected equipment, manuals, warranty, service contacts, responsible owner, and current status.
IdentificationUnique asset ID tied to the physical machine and production records.
ConfigurationOptions, spindles, aggregates, controls, software, accessories, and modifications.
OwnershipProduction owner, maintenance owner, qualified service route, and escalation contact.
03
Rank asset criticality
Evaluate the consequence of failure rather than using one maintenance level for every machine. Consider worker safety, environmental or fire exposure, product quality, bottleneck effect, redundancy, work-in-process, customer delivery, repair complexity, spare-parts lead time, and the time required to restore stable production.
ConsequenceImpact on safety, quality, throughput, delivery, cost, and connected systems.
LikelihoodHistory, duty, environment, age, condition, and known failure mechanisms.
PriorityCritical, important, support, or low-risk class with an approved maintenance strategy.
04
Collect the technical basis
Assemble manuals, lubrication charts, service bulletins, electrical drawings, pneumatic or hydraulic diagrams, backups, parameter files, alarm history, prior work orders, invoices, replaced-part history, inspection records, and operator observations. Record current performance baselines before changing the program.
DocumentsCurrent OEM information, drawings, passwords, licences, and backup locations.
HistoryFailures, emergency calls, repeat alarms, quality loss, replaced components, and service notes.
BaselineNormal cycle time, vibration, temperature, pressure, vacuum, quality, and machine behaviour.
05
Identify maintenance failure modes
Break each critical asset into maintainable functions and ask how it can fail, what causes the failure, how the condition becomes visible, what consequence follows, and which task can prevent, detect, contain, or recover from it. Separate functional failure from minor defects that do not justify the same response.
FunctionWhat the subsystem must do and the acceptable performance limit.
FailureLoss of function, degraded performance, intermittent fault, or unsafe condition.
ControlInspection, preventive task, condition trigger, spare, redesign, or run-to-failure decision.
06
Plan safe maintenance conditions
Define the safe state, energy-isolation requirements, stored-energy controls, guarding, access, permits, lift or platform needs, hot-work implications, environmental conditions, and qualifications required before a task is scheduled. Work requiring energized diagnostics or specialized service needs approved procedures and authorized personnel.
IsolationElectrical, pneumatic, hydraulic, gravity, thermal, vacuum, and mechanical energy.
AccessGuards, platforms, lifting, lighting, ventilation, work area, and production separation.
AuthorityOperator, maintenance, electrician, technician, OEM, contractor, or professional review.
07
Select the maintenance strategy
Choose the least-complex strategy that controls the failure risk. Some tasks belong on fixed intervals; others should follow usage, measured condition, inspection findings, production campaigns, or a planned shutdown. Low-criticality components may be intentionally run to failure when the consequence is acceptable and recovery is ready.
TriggerCalendar, hours, cycles, condition, alarm, quality, campaign, or planned outage.
IntervalOEM starting point adjusted only through documented evidence and approval.
ResponseWhat condition creates continued operation, planned work, immediate stop, or escalation.
08
Define condition-monitoring points
Identify the measurements and observations that reveal degradation early enough to act. Useful indicators may include vibration, temperature, noise, motor current, vacuum, air pressure, differential pressure, lubricant condition, contamination, leakage, wear, backlash, geometry, cycle time, alarms, tool life, and first-pass quality.
MeasurementMethod, sensor, inspection point, operating condition, and baseline.
ThresholdNormal range, warning, action limit, stop condition, and responsible reviewer.
TrustCalibration, repeatability, data quality, false alarms, and confirmation method.
09
Create standard job plans
Convert recurring work into controlled job plans with task scope, prerequisites, estimated duration, labour skills, parts, consumables, tools, drawings, isolation references, access, photos, measurements, acceptance criteria, cleanup, and return-to-service requirements. Avoid turning a work order into an unstructured note.
PreparationParts, tools, procedures, permits, backups, access, and production status.
ExecutionOrdered task steps referenced to manufacturer or approved procedures.
AcceptanceMeasurements, fastener checks, leak checks, safeguards, quality, and documentation.
10
Build the spare-parts strategy
Classify parts by production consequence, lead time, failure pattern, repairability, shelf life, storage needs, value, and interchangeability. Record exact machine compatibility, approved alternates, reorder points, min/max quantities, repair rotation, and the condition of stored components.
CriticalA stockout would create unacceptable downtime or safety risk.
RoutineWear parts and consumables replenished from actual usage and service frequency.
StrategicLong-lead, obsolete, repairable, or high-value parts managed through contingency plans.
11
Configure the maintenance information system
Use a CMMS, ERP maintenance module, or disciplined work-order system to connect assets, tasks, parts, labour, inspections, failure codes, documents, schedules, and costs. Keep the structure usable enough that technicians and supervisors can record meaningful completion data during real production pressure.
Asset hierarchySite, area, line, machine, subsystem, component, and maintainable item.
Work controlRequest, approval, priority, planning, scheduling, execution, review, and closure.
Data qualityFailure code, cause, action, time, parts, measurements, photos, and follow-up.
12
Plan and schedule the work
Separate planning from scheduling. Planning makes the job ready; scheduling assigns ready work to a realistic production window with available labour, parts, permits, access, contractors, and expected duration. Protect a frozen weekly schedule while retaining a controlled path for true emergencies.
Ready backlogOnly work with approved scope, parts, labour, procedures, and access enters the schedule.
CapacityAvailable maintenance hours compared with preventive, corrective, project, and emergency demand.
CoordinationProduction release, material clearing, utilities, contractors, restart, and contingency time.
13
Execute planned maintenance windows
For major maintenance days, create one integrated outage plan with scope ownership, sequence, isolation boundaries, contractor coordination, parts staging, tools, lifts, work areas, progress reviews, quality hold points, change control, cleanup, testing, and restart authority.
Before outageScope freeze, readiness review, staging, permits, contacts, and backup plan.
During outageProgress control, discoveries, approved scope changes, safety coordination, and issue escalation.
After workInspection, documentation, removed-part disposition, cleanup, and test readiness.
14
Control return to service
Verify that tools and foreign material are removed, guards and safety devices are restored, fasteners and connections are complete, lubrication and utilities are correct, alarms are cleared appropriately, backups or parameters are current, and the approved test plan is ready. Production release should include a controlled functional test and first-piece or process validation.
MechanicalAssembly, fasteners, leaks, lubrication, alignment, guards, and access restored.
ControlsParameters, backups, sensors, interlocks, alarms, and communications verified.
ProductionDry run or safe test, representative material, quality approval, and operator handoff.
15
Review maintenance performance
Use a limited set of measures that reveal whether the program is becoming more planned, more reliable, and easier to execute. Review emergency work, preventive compliance, schedule compliance, repeat failures, backlog age, parts stockouts, mean time to repair, availability, first-time fix, and production loss.
LeadingPlanned-work percentage, PM compliance, ready backlog, inspections, and training.
LaggingDowntime, failures, repeat repairs, quality loss, cost, and availability.
ActionThreshold, owner, due date, root-cause review, and evidence of closure.
16
Improve and manage change
Update tasks, intervals, spares, training, drawings, backups, risk controls, and reports when failure evidence supports a better method or when equipment, materials, software, production rate, dust collection, guarding, utilities, or workflow changes. Reliability improvement should remove causes, not merely shorten the response to the same failure.
LearningCompleted work, failures, near misses, operator feedback, and condition trends.
Change controlReview before modifying equipment, software, intervals, safeguards, or approved parts.
SustainmentRevised standards, training, documents, spares, baseline data, and follow-up audit.
A practical maintenance cadence.
Actual tasks and intervals must follow OEM requirements, asset duty, environment, history, regulation, condition, and qualified review. This cadence is a planning framework, not a universal service schedule.
SHIFT
Operator / production
Visual condition, leaks, unusual sound or heat, guarding, air and vacuum status, dust accumulation, tool or consumable condition, alarms, cleaning, and abnormal-operation handoff.
DAILY
Operator / maintenance
Lubrication-system status, filter or pressure indicators, coolant or glue condition where applicable, machine cleaning, tool-change areas, safety devices, production faults, and open work requests.
WEEKLY
Maintenance
Hoses, cables, chains, belts, rollers, guides, fasteners, extraction, lubrication points, sensors, access panels, toolholders, utility connections, and recurring alarms.
MONTHLY
Maintenance / supervisor
Condition trends, backlash or wear indicators, filter loading, fan and pump condition, drives, electrical cabinets, backups, safety-device checks, spare-parts status, and backlog review.
QUARTERLY
Qualified service / maintenance
Selected geometry, vibration, thermal, electrical, lubrication, vacuum, pressure, calibration, drive, safety, and control-system checks based on the asset plan.
ANNUAL
Reliability / OEM / qualified trades
Comprehensive asset audit, major service tasks, critical-spares review, software and backup validation, safeguarding review, condition baselines, and next-year shutdown plan.
SHUTDOWN
Integrated team
Major inspection, rebuild, alignment, controls work, dust-system service, utilities, guarding, structural work, deep cleaning, validation, and coordinated restart.
Condition monitoring that can support maintenance decisions.
Monitoring becomes valuable when the point, method, operating condition, baseline, threshold, owner, and required response are defined.
C01
Vibration and mechanical condition
Bearings, spindles, fans, pumps, gearboxes, motors, and rotating assemblies can be trended for changes that justify inspection or planned intervention.
C02
Thermal inspection
Temperature patterns can reveal electrical connection problems, overloaded components, lubrication issues, friction, cooling loss, or process conditions requiring qualified review.
C03
Electrical and drive data
Motor current, drive alarms, torque, load, starts, power quality, cabinet temperature, and fault history can support diagnosis when interpreted against normal operation.
C04
Lubrication and fluid condition
Oil, grease, coolant, glue, hydraulic fluid, and compressed-air condition require correct product, cleanliness, quantity, interval, storage, and contamination control.
C05
Vacuum, pressure, and flow
Vacuum pumps, compressed air, dust collection, cooling, glue delivery, pneumatics, and hydraulics can be monitored for leakage, restriction, loading, or declining performance.
C06
Geometry and process capability
Backlash, calibration, tool-change repeatability, saw alignment, drilling position, sanding calibration, profile accuracy, and first-pass quality can reveal mechanical drift.
C07
Filter and cleanliness condition
Differential pressure, cabinet cleanliness, fan loading, machine dust accumulation, sensors, cooling passages, and contamination often influence component life and reliability.
C08
Software, alarms, and cycle-time trends
Alarm frequency, program changes, communication faults, restart time, cycle-time drift, and operator workarounds can expose control, process, or training problems.
The spare-parts program is part of the maintenance strategy.
Stocking everything is expensive; stocking nothing transfers the cost to downtime. The useful middle ground is an asset-linked, criticality-based inventory with exact compatibility and known replenishment paths.
SP01
Critical production spares
Components whose absence would create unacceptable downtime, safety exposure, or loss of the only production route.
SP02
Routine wear parts
Belts, pads, seals, filters, hoses, brushes, scrapers, bearings, chains, inserts, and other items consumed through predictable service.
SP03
Consumables and service materials
Lubricants, cleaners, coolants, adhesives, filter media, fasteners, batteries, fuses, and task-specific supplies.
SP04
Repairable rotation
Motors, pumps, drives, spindles, gearboxes, electronics, or assemblies managed through exchange, rebuild, or repair loops.
SP05
Long-lead and obsolete risk
Legacy controls, custom assemblies, imported components, or discontinued items requiring contingency, retrofit, or replacement planning.
SP06
Approved alternates and kits
Validated substitutes, service kits, task kits, and machine-specific groups that reduce search time and incomplete maintenance jobs.
Planned shutdowns and service days
A maintenance day should begin with ready work—not discovery.
The strongest shutdown plans coordinate production release, isolation, contractors, parts, tools, lifts, access, drawings, backups, removed components, scope changes, progress control, cleanup, testing, first article, and restart authority. A machine being available is not the same as the maintenance work being ready.
Readiness question
Can the team start the job with the correct parts, people, procedures,
access, production status, and acceptance criteria without searching,
waiting, or improvising?
Common downtime patterns—and the maintenance-system response.
The expensive part of many failures is not the component. It is the production interruption, diagnosis time, unavailable information, missing parts, repeated repair, and unstable restart that surround it.
The shutdown that became a parts search
A planned maintenance day started with the machine available but the job plan did not include exact seals, fasteners, lubricant, access tools, or a replacement sensor. Technicians discovered missing items after disassembly, extending the outage into the next production shift.
Better methodUse a ready-work review, machine-specific parts kit, staged tools, photographs, drawings, and a hold point before disassembly.
The bearing replaced three times
A recurring bearing failure was treated as a component problem. The actual contributors included contamination, installation condition, alignment, loading, and weak lubrication control. Replacing the bearing restored production briefly but preserved the failure mechanism.
Better methodRecord failure evidence, verify installation and operating conditions, review alignment and contamination, and change the maintenance standard only after cause is supported.
The filter that looked like a machine fault
Cooling passages and cabinet filters loaded gradually. Drives and controls began showing intermittent temperature-related alarms, leading to repeated resets and electronics troubleshooting while the underlying airflow condition remained.
Better methodInclude cabinet cleanliness, filter condition, ambient temperature, and alarm trends in the asset inspection route.
The backup that was never tested
A control component failed and the team had an old backup, but the machine configuration, software version, passwords, parameters, and restoration path were incomplete. Mechanical repair finished before the control system could be returned to production.
Better methodMaintain version-controlled backups, restore instructions, access ownership, hardware compatibility, and periodic validation.
The emergency spare that did not fit
A high-value spare was stocked for years but had never been checked against the machine serial number and installed options. When needed, the connector and firmware did not match the actual machine configuration.
Better methodTie every critical spare to exact asset compatibility, approved alternates, storage condition, inspection, and periodic review.
The PM program that created no reliability
Work orders were closed on time, but tasks consisted mainly of generic inspection statements. Measurements, findings, replaced parts, failure codes, and corrective actions were not recorded, so repeat defects remained invisible.
Better methodWrite task-specific acceptance criteria and require meaningful completion data that can change the next interval or action.
Planned-work percentage
Share of maintenance labour completed from prepared work rather than emergency response.
Preventive-maintenance compliance
Scheduled preventive tasks completed within the approved tolerance window.
Schedule compliance
Weekly scheduled work completed as planned, with reasons recorded for deferrals.
Emergency-work percentage
Maintenance demand requiring immediate production interruption or schedule displacement.
Mean time between failures
Operating time or production between defined functional failures for a selected asset.
Mean time to repair
Elapsed repair or restoration time from approved start point to defined return-to-service condition.
Repeat-failure rate
Failures recurring within the chosen review period after repair or corrective action.
First-time fix rate
Work completed without an avoidable second visit caused by missing diagnosis, parts, tools, or information.
Parts-stockout downtime
Lost time caused by unavailable parts, consumables, repairables, or incorrect inventory records.
Maintenance backlog age
Ready and unready work grouped by priority, age, labour, parts, and production consequence.
Asset availability
Time the asset is capable of performing required production compared with the defined required time.
Maintenance-induced defects
Quality, alarm, safety, leak, setting, or documentation problems introduced during maintenance or restart.
G0
Scope accepted
Assets, goals, sites, roles, production windows, current problems, and decision authority are clear.
G1
Asset and safety basis complete
Asset register, OEM information, criticality, isolation needs, guarding, access, and qualified-work requirements are documented.
G2
Maintenance strategy approved
Failure modes, tasks, triggers, intervals, condition points, and run-to-failure decisions have owners and evidence.
G3
Work management ready
Job plans, CMMS structure, parts, labour, tools, contractors, priorities, and scheduling rules are established.
G4
Shutdown ready
Scope, parts, labour, permits, isolation, access, test materials, restart plan, and contingency have passed readiness review.
G5
Return to service accepted
Mechanical, controls, safety, documentation, functional test, first-piece quality, and operator handoff are complete.
G6
Program handed off
Metrics, backlog, spares, training, audits, change control, and improvement ownership are active.
Reference framework used for the planning model.
Requirements and software capabilities change. The project team should confirm the current manufacturer documentation, regulation, software version, and authority requirements for the exact machine and location.
WorkSafeBC
De-energization, lockout, safeguarding, tools, machinery, equipment, and qualified-work requirements for British Columbia workplaces.
Official lockout regulationISO asset management
ISO 55000 provides current asset-management vocabulary, overview, and principles for aligning asset activity with organizational value.
ISO 55000 overviewNIST manufacturing monitoring
NIST research addresses monitoring, diagnostics, prognostics, data trust, and condition-based maintenance for manufacturing systems.
NIST monitoring programSCM service and digital support
SCM provides machine monitoring, maintenance notifications, service support, original spare-parts resources, and machine-specific service information for supported equipment.
SCM spare-parts supportPossible planning deliverables
Asset register and criticality ranking
Failure-mode and maintenance-strategy matrix
Standard job-plan templates
Condition-monitoring points and baselines
Critical-spares and replenishment plan
CMMS hierarchy and work-order structure
Shutdown readiness and restart checklist
Maintenance metrics and review cadence
Titan next-stage support
Machine and production-cell audits
Parts, tooling, filters, and consumables
Dust-collection maintenance planning
Machine monitoring and reporting integration
Planned maintenance-day coordination
Startup and return-to-service support
Operator and maintenance training
Reliability and upgrade planning
Build the maintenance plan around the real plant
Turn machine care into ready work, controlled shutdowns, and dependable production.
Send Titan the machine list, serial numbers, recurring failures, service history, maintenance schedule, parts concerns, software and alarm data, planned shutdown dates, production bottlenecks, and current work-order process. The maintenance program can then be built around the assets and production risks that matter most.