Article 1 of 5 — Steel Industry
How Khash Would Implement ICML 55 Lubrication Management in a Steel Plant Through Noria-Style Consulting and Service Programs
I will treat Khash as the lubrication-management implementation lead or consulting program owner. The implementation model below is written for an integrated or semi-integrated steel operation and is structured around ICML 55, delivered through a Noria Lubrication Program Development-style service model.
1. Strategic intent: from “lubrication tasks” to a governed lubrication-management system
In a steel plant, lubrication cannot be managed as a set of isolated greasing, oil-changing, and oil-sampling tasks. The operating environment is too severe: rolling mills, casters, gear drives, hydraulic systems, fans, blowers, pumps, conveyors, cranes, and utility assets are exposed to combinations of high load, shock load, high temperature, water ingress, scale, abrasive dust, vibration, corrosive atmospheres, and continuous-production pressure. Steel plant equipment commonly operates from low-speed, heavily loaded drives to high-speed rotating machines, and rolling/finishing equipment is especially exposed to impact loads, water and scale ingress, elevated temperatures, higher speeds, and high unit loads. (Machinery Lubrication India)
ICML 55 is appropriate because it is not simply a technical checklist; it is a lubrication-specific management-system standard for lubricated mechanical assets. ICML describes ICML 55 as a family of standards aligned with ISO 55000 and intended to support physical asset-management plans; ICML 55.1 defines requirements, while ICML 55.2 provides guidance for implementation. (Lubrication Council)
For Khash, the implementation objective in steel is therefore:
To establish, operate, audit, and continuously improve a lubrication-management system that protects critical steelmaking assets from lubrication-related failure modes, reduces contamination-driven degradation, improves lubricant and component life, and integrates lubrication decisions into asset management, maintenance planning, condition monitoring, procurement, EHS, and operations.
2. ICML 55 framework applied to steel industry assets
ICML 55.1’s publicly available contents show that a conforming lubrication-management plan should address areas such as lubrication-management objectives, training and competency, machine lubrication readiness, lubrication system design, planned and corrective lubrication tasks, support facilities and tools, machine and lubricant inspection, condition monitoring and lubricant analysis, fault troubleshooting and RCA, lubricant waste, energy and environmental impact, oil reclamation and system decontamination, program metrics, audits, records, and management review.
For a steel plant, Khash would translate these areas into the following implementation architecture:
| ICML 55 management area | Steel-industry implementation focus |
|---|---|
| Lubrication objectives | Reduce bearing, gearbox, hydraulic, and roll-system failures; reduce water and particle contamination; reduce lubricant consumption; improve uptime of caster, rolling mill, and furnace support assets. |
| Skills and competency | Train lube technicians, operators, planners, reliability engineers, storeroom staff, and contractors on steel-specific lubrication hazards and procedures. |
| Machine readiness | Modify assets with proper breathers, sample ports, sight glasses, desiccant breathers, quick connects, filtration ports, contamination-control hardware, and safe access points. |
| Lubrication system design | Optimize oil circulation, centralized grease systems, oil mist systems, hydraulic reservoirs, filter systems, and automated lubrication systems. |
| Planned and corrective tasks | Build precision lubrication routes, condition-based oil changes, grease-volume calculations, inspection standards, and abnormality-response workflows. |
| Storage and handling | Design a steel-plant lube room and satellite lube points resistant to dust, moisture, heat, cross-contamination, and poor transfer practices. |
| Inspection and condition monitoring | Standardize daily operator inspections, route-based lubricant inspections, oil analysis, wear-debris analysis, online sensors, and filtration checks. |
| RCA and troubleshooting | Investigate repeated bearing, gearbox, pump, valve, and hydraulic failures using lubrication-focused failure modes. |
| Waste, energy, and environment | Reduce lubricant leakage, disposal volume, oil-contaminated water, excess grease purge, and frictional energy losses. |
| Records, audits, and review | Maintain auditable procedures, asset data, lubricant specifications, sample history, corrective actions, and management-review evidence. |
3. Noria-style service delivery model for the steel industry
Khash would not implement everything at once. The program should be delivered in a structured consultancy and service sequence similar to Noria’s Lubrication Program Development model: Ascend Assessment, Engineering Design, and Program Implementation. Noria describes its LPD model as a three-phase plan: assessment, engineering design, and implementation; its published average timelines are approximately one week for Phase I, six to eight weeks for Phase II, and one to two years for Phase III. (Noria Corporation)
Phase 1 — ICML 55 / Ascend baseline assessment
Khash would begin with a plantwide or area-specific baseline assessment. Noria’s Ascend Assessment is described as a customized roadmap for quick wins and long-term success, including training, KPIs, a detailed report, cost justification, and a prioritized roadmap; Noria also describes a 524-point onsite assessment that establishes a baseline for measuring improvement. (Noria Corporation)
For a steel plant, this assessment would include:
Asset walkdowns:
Hot strip mill, cold rolling mill, continuous caster, melt shop, raw-material handling, sinter plant, coke plant, blast furnace, BOF/EAF area, cranes, hydraulic rooms, compressor houses, cooling-water systems, and utility assets.
Lubrication-practice review:
Oil storage, grease storage, filtration practices, transfer containers, top-up methods, route compliance, oil-change logic, grease application, route documentation, sampling technique, lube technician practices, operator inspections, contractor interfaces, and CMMS execution.
Machine-readiness review:
Presence and condition of breathers, vents, fill points, drain valves, live-zone sample ports, return-line sample ports, offline filtration connections, desiccant breathers, sight glasses, BS&W bowls, magnetic plugs, oil-level indicators, grease purge points, centralized lubrication alarms, and safe access provisions.
Contamination-control review:
Water ingress points, roll-cooling water intrusion, scale ingress, dust exposure, open reservoirs, poor hatch sealing, damaged breathers, exposed grease fittings, dirty grease guns, shared transfer containers, and unfiltered top-up oil.
Oil-analysis review:
Sample point quality, sampling frequency, test slate by equipment class, alarm limits, report interpretation, abnormal-sample work orders, lab turnaround, historian integration, and failure correlation.
Business case:
Khash would quantify downtime exposure from lubrication-related failures, lubricant consumption, bearing and gearbox spend, hydraulic valve/pump failures, emergency maintenance, rework, oil disposal, and energy losses. The output should include a five-year improvement plan with NPV/IRR logic, consistent with the cost-justification approach described by Noria’s Ascend deliverables. (Noria Corporation)
4. Steel plant asset segmentation and lubrication criticality
Khash should divide the plant into lubrication-management zones because lubrication risks differ sharply across steelmaking processes.
4.1 Raw material handling, coke, sinter, and blast furnace areas
Typical assets:
- Conveyor pulley bearings and idlers
- Crushers, screens, feeders, and stacker-reclaimers
- Gear reducers and open gears
- Fans and blowers
- Dust-collection systems
- Hydraulic drives and cylinders
- Pumps and utility drives
Dominant lubrication risks:
- Abrasive dust ingress
- Shock loading
- Misalignment and vibration
- Slow-speed boundary lubrication
- High bearing loads
- Outdoor moisture exposure
- Grease over-application or under-application
- Poor access to lubrication points
Recommended technical controls:
- High-load EP gear oils for enclosed reducers, selected by load, speed, temperature, OEM requirements, and sump operating temperature.
- Calcium sulfonate complex, lithium complex, or aluminum complex greases where water resistance, mechanical stability, corrosion protection, and EP performance are required.
- Automatic lubrication systems for hard-to-access bearings, with metered injectors and route-based verification.
- Taconite or heavy-duty seals for extreme dust zones.
- Desiccant or hybrid breathers for gearboxes and hydraulic reservoirs.
- Quick-connect filtration ports for every critical reducer and hydraulic unit.
- Grease-volume calculations based on bearing geometry, speed factor, duty, and purge path, not “number of shots.”
- Ultrasound-assisted greasing for medium- and high-speed bearings where overgreasing creates heat and seal damage.
4.2 Steelmaking and continuous casting
Typical assets:
- Ladle turret bearings and drives
- Continuous caster segment bearings
- Oscillation systems
- Mold and segment hydraulics
- Spray chamber equipment
- Withdrawal and straightener drives
- Roll-line bearings
- Hydraulic power units
- Cooling-bed drives
Dominant lubrication risks:
- High radiant heat
- Water spray and steam
- Scale ingress
- High load and slow oscillating motion
- Grease washout
- Poor relubrication access
- Fire-risk zones near hot metal and hydraulic systems
The steel lubrication literature identifies high temperature, impact load, cooling-water ingress, scale ingress, and grease pumpability problems as major steel-plant lubrication challenges. (Machinery Lubrication India)
Recommended technical controls:
- High-temperature, water-resistant greases for caster bearings, selected for base-oil viscosity, thickener type, dropping point, mechanical stability, water washout resistance, corrosion inhibition, and pumpability.
- Segmented centralized lubrication systems with pressure monitoring, injector confirmation, blocked-line detection, and low-level alarms.
- Shorter grease distribution runs in high-viscosity grease systems to reduce pumpability failures.
- Fire-resistant hydraulic fluids where required by risk assessment, OEM compatibility, and EHS requirements.
- Dedicated filtration and dehydration for caster hydraulic systems.
- Heat shielding and remote-mounted lubrication manifolds to reduce technician exposure.
- Routine inspection for grease purge quality: fresh grease appearance, water contamination, hardening, carbonization, metallic debris, and blocked purge paths.
- Root cause review of every repeated caster bearing failure, classifying failure as lubricant starvation, thermal degradation, water washout, contamination, misalignment, overload, sealing failure, or installation defect.
4.3 Hot rolling mills
Typical assets:
- Roughing and finishing mill stand gearboxes
- Pinion stands
- Work-roll and backup-roll bearing systems
- MORGOIL-type film bearings where installed
- Universal spindles and couplings
- Coilers and mandrels
- Runout table rolls
- Descaling pumps
- AGC hydraulic systems
- Morgoil/circulating-oil systems
- Oil-cellars and lube rooms
Dominant lubrication risks:
- Severe water ingress from descaling and roll cooling
- Scale and iron oxide contamination
- High shock load
- Thermal cycling
- Air entrainment and foaming
- High lubricant circulation volumes
- Filter bypass events
- Oil degradation due to water and heat
- Hydraulic servo-valve sensitivity
The rolling and finishing areas are particularly important because they combine high impact loads, water and scale ingress, high temperature near reheating furnaces, and higher speeds and unit loads. (Machinery Lubrication India)
Recommended technical controls:
- High-demulsibility circulating oils for mill bearing systems, with water removal via reservoir design, settling zones, centrifuges, vacuum dehydration, coalescers, or offline conditioning.
- Condition-based oil changes using viscosity, acid number, oxidation, water, particle count, ferrous debris, additive depletion, and demulsibility trend data.
- Beta-rated pressure and return filtration sized for flow, viscosity, dirt load, and cold-start differential pressure.
- Dedicated kidney-loop filtration and dehydration skids for backup-roll bearing oils and large gearboxes.
- Inline water sensors and particle counters for the most critical circulating systems.
- Live-zone sampling ports installed upstream of filters and downstream of components where turbulent, representative oil can be captured safely.
- Reservoir modifications: sloped floors, bottom drains, access hatches with seals, desiccant breathers, diffuser plates, return-line drop tubes below oil level, and anti-vortex arrangements.
- AGC hydraulic cleanliness targets more stringent than general hydraulics because servo and proportional valves have low contamination tolerance.
- Water ingression RCA for each mill bearing system: chock seals, roll-cooling sprays, backup-roll seal condition, reservoir hatch sealing, heat-exchanger leaks, washdown practices, condensation, and maintenance contamination.
4.4 Cold rolling, finishing, galvanizing, and process lines
Typical assets:
- Cold mill stands
- Tension reels and bridle rolls
- Gearboxes and couplings
- Hydraulic screwdowns and AGC systems
- Rolling oil/emulsion systems
- Pickling line drives
- Skin-pass mill equipment
- Galvanizing line bearings and drives
- Furnace fans and rolls
- Strip-processing line hydraulics
Dominant lubrication risks:
- Servo-hydraulic contamination
- Rolling oil/emulsion control issues
- Tramp oil contamination
- Water/oil cross-contamination
- High-speed bearing failures
- Product-quality sensitivity
- Compatibility issues between process fluids and lubricants
Recommended technical controls:
- Separate governance for machinery lubricants and process fluids, while ensuring shared contamination and EHS controls.
- Hydraulic fluid cleanliness targets by valve criticality.
- Rolling oil/emulsion monitoring for concentration, pH, conductivity, tramp oil, microbial activity, iron fines, ash, viscosity, and product-quality correlation.
- Mist-oil or oil-air systems for high-speed bearing applications where appropriate.
- Lubricant compatibility checks for seals, elastomers, rolling oils, cleaners, and hydraulic fluids.
- Abnormality triggers tied to strip-quality defects, chatter, roll marks, hydraulic instability, temperature excursions, and bearing vibration.
4.5 Utilities and plant services
Typical assets:
- Turbines
- Compressors
- Fans
- Blowers
- Pumps
- Cooling towers
- Water-treatment equipment
- Cranes
- Mobile equipment
- Electrical-room HVAC and auxiliary equipment
Recommended technical controls:
- Turbine oil varnish monitoring where oxidation and deposit formation are credible risks.
- Compressor lubricant selection by gas type, discharge temperature, OEM requirement, and varnish/carbon risk.
- Grease optimization for motors using bearing type, speed, temperature, and relubrication path.
- Electric motor lubrication procedures preventing shield/seal damage, overlubrication, and winding contamination.
- Oil mist or centralized oil systems where technically justified for large rotating-equipment populations.
5. Lubricant selection and consolidation strategy
Steel plants use a wide range of lubricants: hydraulic oils, gear oils, compressor oils, film-bearing oils, circulating oils, turbine oils, metalworking fluids, rolling oils, rust preventives, mill greases, high-temperature greases, open-gear compounds, wire-rope lubricants, and specialty lubricants. (Machinery Lubrication India)
Khash should therefore build a lubricant selection and consolidation matrix. The objective is not simply to reduce SKU count; it is to reduce complexity without compromising reliability.
Selection parameters for oils
For each oil-lubricated component, Khash would define:
- Required viscosity grade at operating temperature
- Minimum and maximum sump temperature
- Load regime: hydrodynamic, elastohydrodynamic, mixed, or boundary
- Gear type, bearing type, pump type, or hydraulic component type
- OEM specification
- Seal and paint compatibility
- Water separability / demulsibility requirement
- Air release and foam control
- Oxidation stability
- Rust and corrosion inhibition
- Anti-wear or EP chemistry
- Filterability
- Cleanliness target
- Fire resistance requirement
- Compatibility with existing fluid during transition
Selection parameters for greases
For grease-lubricated components, Khash would define:
- NLGI grade
- Base-oil viscosity
- Thickener type
- Dropping point
- Mechanical stability
- Oxidation stability
- Water washout resistance
- Water spray-off resistance
- Corrosion protection
- EP / antiwear performance
- Pumpability through centralized systems
- Low-temperature mobility
- Compatibility with existing grease
- Purge path and regreasing access
- Relubrication interval and calculated volume
Consolidation rules
Khash should consolidate lubricants only after a technical compatibility review. The steel plant should avoid consolidating:
- High-water zones into generic multipurpose grease
- Servo-hydraulic systems into general hydraulic oil without cleanliness and valve compatibility review
- Worm gear oils into EP gear oils that may be chemically incompatible with yellow metals
- Fire-risk hydraulic systems into standard mineral oil
- High-temperature caster bearings into low-drop-point multipurpose grease
- Process rolling oils with machinery lubricants under the same governance category
The output should be a Lubricant Approved Product List, including primary product, approved alternate, application class, viscosity, thickener chemistry, OEM approval, storage code, transfer container code, and change-management restrictions.
6. Contamination-control design
In steel, contamination control is the center of the lubrication program. Khash should define contamination targets for each asset class and then engineer the plant to achieve them.
6.1 Particle contamination
Typical initial target classes, to be finalized by OEM and criticality review:
| Asset class | Suggested starting ISO 4406 target |
|---|---|
| Servo / proportional hydraulic systems | 15/13/10 or cleaner |
| Critical hydraulic systems | 16/14/11 to 17/15/12 |
| General hydraulic systems | 18/16/13 |
| Turbine and compressor oils | 16/14/11 to 17/15/12 |
| Critical circulating mill bearing oils | 17/15/12 to 18/16/13 |
| Critical gearboxes | 18/16/13 |
| General gearboxes | 19/17/14 |
| Low-speed, high-load open gears | Managed by visual inspection, lubricant film control, debris removal, and wear monitoring rather than only ISO particle count |
6.2 Water contamination
Water is especially destructive in hot rolling, casting, outdoor raw-material handling, and washdown areas. Khash would separate water control into three categories:
Exclusion:
Improved seals, water deflectors, desiccant breathers, sealed hatches, improved reservoir covers, splash guards, and disciplined washdown practices.
Removal:
Vacuum dehydration, centrifugation, coalescing filtration, reservoir settling, low-point drains, and scheduled water-bottom draining.
Detection:
Karl Fischer water testing, crackle screening, online water sensors, visual inspections, BS&W bowls, and water trend alarms.
6.3 Lubricant receiving and storage cleanliness
Khash should implement a closed-loop contamination-control system from receipt to application:
- New oil filtered before storage or while being transferred into bulk tanks.
- Bulk tanks fitted with desiccant breathers, sample taps, filtration loops, bottom drains, level gauges, and dedicated dispensing lines.
- Grease stored by product code, temperature-controlled where practical, first-in-first-out, and protected from dust.
- Transfer containers sealed, color-coded, shape-coded, and dedicated by lubricant.
- No open funnels, unmarked oil cans, shared grease guns, or exposed top-up points.
- Every top-up to critical equipment performed through filtration or a sealed quick-connect system.
- Oil drums stored horizontally or under cover, with bungs protected from water accumulation.
- Satellite storage points audited against the same rules as the main lube room.
7. Machine lubrication and condition-monitoring readiness
A major ICML 55 implementation requirement is that machinery must be physically ready for precision lubrication and inspection. Khash should treat poor machine readiness as a design defect, not a technician problem.
Required hardware modifications
For critical steel assets, Khash should specify:
- Desiccant or hybrid breathers
- Expansion chambers where high thermal cycling causes breathing losses
- 3D sight glasses or bullseye sight glasses
- Columnar level gauges for large reservoirs
- BS&W bowls for water detection
- Live-zone sample ports
- Return-line and pre-filter sample ports where diagnostics require them
- Quick-connect filtration ports
- Dedicated top-up ports
- Magnetic drain plugs
- Flush ports for decontamination
- Reservoir inspection hatches with proper seals
- Filter differential-pressure indicators
- Offline filtration loops
- Online particle counters for critical hydraulics
- Online moisture sensors for water-prone circulating systems
- Grease relief fittings and purge paths
- Centralized lubrication flow confirmation
- Remote grease manifolds in hot or unsafe areas
- Asset identification tags and lubricant ID plates
Noria’s Engineering Design phase similarly emphasizes collecting asset data onsite and producing lubricant recommendations, hardware recommendations, data management, and dynamic procedures for inspections, relubrication, sampling, changeouts, filtration, and other lubrication activities. (Noria Corporation)
8. Oil analysis and lubricant condition-monitoring program
Khash should redesign oil analysis around failure modes, not generic monthly sampling.
8.1 Test slate by equipment class
| Equipment class | Routine tests | Exception / advanced tests |
|---|---|---|
| Servo hydraulics | ISO particle count, water, viscosity, acid number, FTIR oxidation, elemental metals, filter debris review | Patch microscopy, MPC varnish potential, RULER, membrane gravimetry, valve-deposit analysis |
| General hydraulics | ISO particle count, water, viscosity, acid number, FTIR, elemental metals | Analytical ferrography, filter debris analysis, air release, foam |
| Gearboxes | Viscosity, acid number, water, ISO particle count, PQ index, ferrous debris, elemental metals, FTIR oxidation | Analytical ferrography, gear wear particle morphology, demulsibility, foam, crackle confirmation |
| Mill bearing circulating oils | Water, ISO particle count, viscosity, acid number, elemental metals, PQ, demulsibility, oxidation | Vacuum dehydration performance testing, patch microscopy, seal-leak investigation |
| Turbines and compressors | Viscosity, acid number, oxidation, water, particle count, RPVOT where applicable, varnish potential where applicable | MPC, RULER, ultracentrifuge, deposit analysis |
| Fire-resistant hydraulic fluids | Water content, pH/reserve alkalinity as applicable, viscosity, particle count, elemental analysis, specific fluid-family tests | Compatibility and degradation product testing |
| Greases | Consistency, oil separation, FTIR, wear metals, contamination, water, microscopy | Worked penetration, dropping point, ferrography, compatibility testing |
| Rolling oils / emulsions | Concentration, pH, conductivity, tramp oil, particle/iron loading, microbial condition, viscosity | Product-defect correlation, residue testing, emulsion stability |
8.2 Sampling frequency
Khash should use criticality-based sampling:
- A-class assets: every two weeks to monthly, with online sensors where failure develops rapidly.
- B-class assets: monthly to quarterly.
- C-class assets: semiannual, annual, or exception-based.
- Commissioning / post-maintenance: baseline sample after flush and after first operating interval.
- Abnormal condition: immediate confirmation sample after water ingress, overheating, filter bypass, foaming, vibration increase, or unexplained pressure instability.
8.3 Alarm architecture
Khash should use three alarm types:
- Absolute limits: cleanliness, water, viscosity change, acid number, and additive depletion thresholds.
- Rate-of-change alarms: sudden increases in iron, PQ, silicon, water, particle count, oxidation, or viscosity.
- Statistical alarms: deviation from asset-specific historical behavior.
Every abnormal report should generate one of four actions: monitor, resample, corrective work order, or RCA.
9. Lubrication task engineering
Khash should eliminate vague PM language such as “grease bearing as required” or “check oil.” Each task must be engineered.
9.1 Precision greasing
Each grease task should define:
- Asset and component ID
- Bearing type and size
- Grease product code
- Grease volume in grams or cubic centimeters
- Grease gun calibration in grams per stroke
- Frequency
- Running or stopped condition
- Purge requirement
- Ultrasound requirement
- Safety precautions
- Access method
- Acceptance criteria
- Abnormal observations
- Required corrective action
For high-speed motors, Khash should avoid overgreasing by using calculated regrease volumes, extended intervals where appropriate, purge plugs, and acoustic/temperature feedback.
9.2 Oil top-up
Each oil top-up task should define:
- Correct lubricant
- Target level at running and stopped condition
- Filtration requirement
- Transfer container requirement
- Maximum allowable top-up before leak investigation
- Required inspection for leaks, foaming, darkening, water, odor, or sediment
- CMMS entry requirements
9.3 Oil changeouts
Oil changes should be condition-based unless OEM warranty, contamination, degradation, or commissioning requirements dictate otherwise. A changeout procedure must include:
- Pre-sample
- Drain while warm where safe
- Inspection of drain plug and reservoir bottom
- Cleaning or flushing requirement
- Filter replacement
- Breather replacement if saturated
- Refill through filtration
- Post-fill sample
- Baseline record
- Waste-oil classification and disposal route
10. Steel-specific sample procedure: hot strip mill backup-roll bearing circulating oil system
Purpose: Maintain fluid film reliability, remove water and scale contamination, prevent bearing distress, and extend oil life.
Daily operator inspection:
- Check reservoir level and temperature.
- Check supply and return pressures.
- Check filter differential pressure.
- Inspect oil in sight glass for water haze, foam, darkening, or aeration.
- Drain BS&W bowl if water is visible.
- Confirm breather condition.
- Inspect cooler for suspected water leak.
- Verify standby pump availability.
- Record abnormal noise, vibration, or temperature.
Weekly lubrication technician task:
- Drain low-point water until clear oil appears.
- Inspect and clean magnetic plugs where installed.
- Verify offline filtration and dehydration operation.
- Inspect sample port cleanliness.
- Check filter bypass indicators.
- Verify no unfiltered top-up has occurred.
- Review top-up volume trend.
Monthly condition-monitoring task:
- Draw live-zone sample using standard bottle, flush volume, and sample-port procedure.
- Test for viscosity, water, ISO particle count, acid number, oxidation, elemental metals, PQ/ferrous debris, and demulsibility if water separation is degrading.
- Compare results to target, baseline, and rate-of-change limits.
- Generate corrective work orders for water, particle, viscosity, or wear alarms.
Corrective action triggers:
- Water above target or persistent water after dehydration.
- Particle count above target for two consecutive samples.
- Sudden iron/PQ increase.
- Viscosity shift outside acceptable range.
- Filter differential pressure rising faster than expected.
- Foaming, aeration, or air-release problems.
- Repeated top-up indicating leak or consumption abnormality.
11. Work management integration: CMMS, LubePM, and route control
Khash should integrate the lubrication-management system with the plant CMMS/EAM and a lubrication-specific platform. Noria describes LubePM as a cloud-based application used as the central delivery platform for procedures, asset data, recommendations, approvals, metrics, and dynamic updates during Lubrication Program Development. (Noria Corporation)
For steel, the integration should include:
- Asset hierarchy aligned between CMMS and lubrication platform.
- Every lubrication point assigned a unique ID.
- Lubricant code linked to approved product list.
- Route tasks generated from engineered procedures.
- PM frequencies tied to operating context, not generic calendar assumptions.
- Barcodes or QR codes at lubrication points.
- Mobile route execution with photos and abnormality capture.
- Automatic work requests from failed inspections.
- Oil-analysis abnormality workflow integrated into corrective maintenance.
- Management of change for lubricant substitutions, hardware changes, and task changes.
- Dashboards for compliance, overdue tasks, contamination targets, oil-analysis health, and implementation progress.
12. Training and competency program
ICML 55 includes job-task skills, training, and competency in its lubrication-management-plan structure. (PagePlace) Khash should create a role-based competency matrix.
| Role | Required competency |
|---|---|
| Plant manager / sponsor | Business case, risk, KPI review, resource allocation |
| Maintenance manager | Program governance, backlog control, PM compliance, contractor accountability |
| Reliability engineer | Oil analysis, RCA, contamination control, asset criticality, redesign justification |
| Lube technician | Precision greasing, oil transfer, sampling, inspections, filtration, route execution |
| Operator | Visual inspection, abnormality reporting, basic contamination awareness |
| Planner / scheduler | Lube PM planning, shutdown lubrication work, route balancing |
| Storeroom / procurement | Lubricant receipt, storage, shelf-life, approved product control |
| EHS | Waste oil, spills, fire-resistant fluids, confined-space and hot-area lubrication risks |
| Contractor | Site lubrication standards, product control, sampling and task discipline |
Training should be practical and field-based. Classroom training alone will not correct steel-plant lubrication defects. Khash should use:
- Task-based field coaching
- Grease-gun calibration workshops
- Oil-sampling demonstrations
- Filter-cart operation training
- Contamination-control inspections
- Lube-room audits
- Failure-part review sessions
- Oil-analysis report interpretation meetings
- Supervisor route-quality audits
13. Root cause analysis and failure-elimination process
Khash should create a lubrication-specific RCA trigger list. RCA should be mandatory for:
- Repeated bearing failures on the same asset
- Gearbox failure or abnormal wear debris
- Servo-valve sticking or hydraulic instability
- Caster bearing failures above threshold
- Mill bearing water contamination events
- Filter collapse or bypass event
- Lubricant cross-contamination
- Reservoir contamination after maintenance
- Unplanned oil dump or emergency oil change
- Fire-resistant fluid degradation
- Repeated grease line blockage
- Motor bearing failures after regreasing
The RCA taxonomy should classify causes under:
- Wrong lubricant
- Wrong viscosity
- Wrong grease thickener or base oil
- Lubricant incompatibility
- Underlubrication
- Overlubrication
- Contamination ingress
- Poor storage and handling
- Water ingress
- Thermal degradation
- Additive depletion
- Filtration deficiency
- Poor sampling
- Poor procedure
- Poor machine readiness
- Seal failure
- Human error
- Procurement substitution
- Design deficiency
14. Environmental, waste, and energy management
Steel plants often generate significant lubricant waste through leaks, water-contaminated oil, excess grease purge, poor storage, and unnecessary oil changes. ICML 55’s structure includes lubricant waste handling, energy conservation, environmental impact, oil reclamation, and decontamination. (PagePlace)
Khash should implement:
- Leak tagging and oil-consumption tracking.
- Used-oil segregation by type.
- Dehydration and filtration before disposal decisions.
- Oil reclamation for large circulating systems when technically justified.
- Reduced grease purge through calculated regreasing.
- Spill-control kits at lube storage and satellite points.
- Environmental review for oil-contaminated water pathways.
- Energy tracking where improved lubrication reduces friction, temperature, or drive load.
- Waste-oil documentation and disposal compliance.
- Metrics for liters of lubricant consumed per ton of steel, liters disposed, leak backlog, and reclaimed oil volume.
15. KPIs and management review
The program must be managed by leading and lagging indicators.
Leading indicators
- Lubrication PM compliance
- Route completion quality
- Percentage of critical assets with correct breathers
- Percentage of critical assets with proper sample ports
- Percentage of assets meeting ISO cleanliness target
- Percentage of assets meeting water target
- Oil-analysis sample compliance
- Abnormal oil-analysis closure time
- Filter-cart use compliance
- Lube-room audit score
- Lubricant cross-contamination incidents
- Training completion by role
- Implementation progress against hardware BOM
- Grease-gun calibration compliance
- Corrective actions closed on time
Lagging indicators
- Lubrication-related downtime
- Bearing failures by area
- Gearbox failures by area
- Hydraulic pump and valve failures
- Lubricant consumption
- Grease consumption
- Oil disposal volume
- Maintenance cost associated with lubrication failures
- MTBF for critical lubrication-sensitive assets
- Emergency work from lubrication failures
- Production loss from lubrication-related downtime
Management review
Quarterly management review should include:
- KPI dashboard
- Top ten lubrication risks
- Contamination-control performance
- Oil-analysis exceptions
- RCA status
- Budget and benefits tracking
- Implementation barriers
- Contractor performance
- Training gaps
- Audit findings
- Management-of-change log
- Next-quarter priorities
ICML 55.1’s structure includes audits, records, and program oversight/management review, so Khash should treat these meetings as evidence of system control, not informal reliability discussions. (PagePlace)
16. Implementation roadmap for a steel plant
Stage 0 — Charter and scoping
Deliverables:
- Program charter
- Plant scope
- Asset hierarchy
- Business objectives
- Critical asset list
- Stakeholder map
- EHS requirements
- Data request list
- Communication plan
Stage 1 — Assessment
Deliverables:
- ICML 55 / Ascend gap assessment
- Steel-area risk ranking
- Lube-room and storage audit
- Oil-analysis audit
- Machine-readiness audit
- Quick-win list
- Five-year business case
- KPI baseline
- Prioritized implementation roadmap
Stage 2 — Engineering design
Deliverables:
- Lubricated asset register
- Lubrication point register
- Lubricant selection matrix
- Lubricant consolidation plan
- Approved product list
- Lubrication procedures
- PM task library
- Inspection standards
- Oil-analysis test slate
- Sampling-point design
- Hardware modification list
- Filtration and dehydration plan
- Lube-room design
- Route design
- Training matrix
- KPI dashboard design
Stage 3 — Pilot implementation
Recommended pilot areas:
- Hot strip mill lube systems
- Continuous caster centralized grease systems
- AGC hydraulic systems
- Critical gearboxes in raw material handling
- Main utility compressors or turbine systems
Pilot deliverables:
- Installed breathers and sample ports
- Clean transfer systems
- Revised procedures
- Trained technicians
- Baseline oil samples
- Contamination targets
- Route execution in lubrication software
- Weekly coaching
- First KPI review
Stage 4 — Plantwide rollout
Deliverables:
- Expansion by process area
- Procurement of hardware BOM
- Lube-room upgrades
- CMMS/LubePM integration
- Contractor alignment
- Full training deployment
- Monthly KPI governance
- RCA trigger enforcement
- Lubricant supplier alignment
- Oil-analysis optimization
Noria describes Phase III implementation as the point where new procedures, management practices, KPIs, product specifications, and implementation support are integrated into daily lubrication activities. (Noria Corporation)
Stage 5 — Audit, sustainment, and ICML 55 readiness
Deliverables:
- Internal audit checklist
- Records review
- Compliance dashboard
- Management-review records
- Corrective-action register
- Maturity reassessment
- Updated business case
- Certification-readiness review where applicable
17. Final consulting deliverable package for the steel industry
Khash’s final steel-industry ICML 55 implementation package should include:
- Lubrication Management Policy
- Lubrication Management Plan aligned with plant asset-management objectives
- Steel Plant Lubricated Asset Register
- Criticality and Risk Ranking
- Lubricant Selection and Consolidation Matrix
- Approved Lubricant List
- Lubrication Point Master Data
- Precision Lubrication Procedures
- Condition-Based Oil Change Criteria
- Oil Analysis Program Manual
- Contamination-Control Standard
- Lube Storage and Handling Standard
- Lube Room and Satellite Storage Design
- Hardware Modification BOM
- Sampling Port Installation Plan
- Filtration and Dehydration Strategy
- Centralized Lubrication System Audit Report
- Grease Optimization Study
- Steel-Specific Training Matrix
- CMMS / LubePM Route Library
- KPI Dashboard
- Lubrication RCA Templates
- Lubricant Waste and Environmental Control Procedure
- Audit and Management Review Procedure
- 12–24 Month Implementation Roadmap
18. Steel-industry conclusion
For steel, ICML 55 implementation must be aggressive, field-based, and technically engineered. The program will fail if it remains a documentation exercise. Khash should use the ICML 55 framework to govern the system, Noria-style assessment and engineering design to build the program, and disciplined implementation to change daily behavior at the machine level.
The highest-value technical priorities in steel are:
water and scale exclusion, hydraulic cleanliness, mill-bearing oil conditioning, caster grease reliability, high-temperature lubricant selection, centralized lubrication verification, lube-room discipline, precision sampling, condition-based lubricant replacement, and lubrication-focused RCA.
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