Article 5 of 5 — Oil and Gas Industry

How Khash Would Implement ICML 55 Lubrication Management in Oil and Gas Through Noria-Style Consulting and Service Programs

I will continue using Khash as the lubrication-management implementation lead or consultancy program owner. This article is written for the complete oil and gas value chain: upstream drilling and production, offshore platforms and FPSOs, midstream gas compression and pipelines, LNG and gas processing, refineries, petrochemical plants, terminals, and tank farms.

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1. Strategic intent: why oil and gas needs a formal lubrication-management system

Oil and gas facilities contain some of the most critical lubricated assets in industry: gas turbines, steam turbines, centrifugal compressors, reciprocating compressors, screw compressors, process pumps, API pump trains, gear units, hydraulic power units, engine-driven compression packages, loading pumps, cooling tower gearboxes, blowers, fans, generators, electric motors, cranes, winches, drilling systems, and offshore marine auxiliaries.

The lubrication risks are severe because oil and gas assets are commonly exposed to high consequence of failure, continuous operation, hazardous-area constraints, hydrocarbon vapor, process-gas contamination, water, salt, humidity, sand, dust, heat, high speed, high load, cyclic service, varnish formation, seal-system interfaces, remote access, offshore logistics, and strict EHS controls.

ICML 55 is appropriate because it is a lubrication-specific management-system standard written to support physical asset management and is aligned with ISO 55000 principles. ICML describes ICML 55 as covering twelve interrelated areas of a sustainable lubrication program, with ICML 55.1:2019 as the core “Requirements” standard. (Lubrication Council)

For Khash, the oil and gas objective should be:

To implement an ICML 55-aligned lubrication-management system that improves rotating-equipment reliability, controls contamination and varnish risk, extends lubricant and component life, reduces unplanned shutdowns, protects safety-critical equipment, integrates lubrication into asset integrity and reliability programs, and creates auditable control of lubricant selection, storage, handling, application, oil analysis, corrective action, RCA, and management review.

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2. Oil and gas implementation philosophy under ICML 55

In oil and gas, Khash should not treat lubrication as a maintenance craft activity alone. Lubrication must be integrated with:

• rotating-equipment reliability
• process safety
• asset integrity
• maintenance planning
• turnaround planning
• machinery protection
• oil analysis
• condition monitoring
• procurement
• contractor management
• OEM standards
• API mechanical-equipment requirements
• environmental controls
• management of change

A key point is that ICML 55 governs the lubrication-management system, while API, OEM, and project specifications define many equipment-design requirements. For example, API’s 2025 refining catalog lists API 614 as covering minimum requirements for lubrication systems, oil-type shaft-sealing systems, oil-control systems, and auxiliaries that may serve compressors, gears, pumps, drivers, or complete trains. (American Petroleum Institute)

Therefore, Khash should position the program this way:

Standard / framework	Role in the lubrication program
ICML 55	Governs the lubrication-management system, roles, procedures, audits, records, KPIs, and continual improvement.
Noria LPD / Ascend methodology	Provides consulting structure for assessment, engineering design, and implementation.
API 610 / 611 / 612 / 613 / 614 / 616 / 617 / 618 / 670	Defines many oil-and-gas rotating-equipment design, procurement, machinery protection, and auxiliary-system expectations.
OEM manuals	Define machine-specific lubricant approvals, operating limits, and warranty constraints.
Site standards	Define local EHS, hazardous-area, permit-to-work, offshore, and process-safety constraints.
CMMS / EAM	Controls work execution, PMs, corrective work orders, and records.
Oil-analysis program	Provides condition data for lubricant health, contamination, and wear detection.

API 610 covers centrifugal pumps for petroleum, petrochemical, and natural-gas process services; API 616 covers gas turbines; API 617 covers axial and centrifugal compressors and expander-compressors; and API 618 covers reciprocating compressors and their related lubrication systems, controls, instrumentation, and auxiliaries. (American Petroleum Institute)

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3. Noria-style consulting and service delivery model

Khash should deliver the oil and gas lubrication program through the same structured service model used in the previous articles:

1. Ascend Assessment
2. Engineering Design
3. Program Implementation

Noria describes Lubrication Program Development as a three-phase process: Ascend Assessment, Engineering Design, and Program Implementation. The public Noria LPD page describes the assessment as a 543-point benchmark, the design phase as the development of procedures, calculated volumes and frequencies, and lubricant/hardware recommendations, and the implementation phase as training and route deployment. Noria lists typical durations of about one week for Phase I, six to eight weeks for Phase II, and one to two years for Phase III. (Noria Corporation)

For oil and gas, Khash would modify this model by adding dedicated technical modules for:

• API 614 lube oil systems
• turbine oil varnish control
• compressor lubrication
• process pump lubrication
• oil mist systems
• offshore lubricant logistics
• hazardous-area lubrication practices
• hydraulic and control-oil cleanliness
• critical spares and standby equipment preservation
• turnaround flushing and reservoir cleaning
• dry gas seal / seal support interface review
• lube oil system alarm and trip governance
• machinery protection integration

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4. Phase 1 — ICML 55 / Ascend baseline assessment for oil and gas

The first phase should establish the current maturity of the lubrication program and identify the highest-risk lubrication gaps. Noria’s Ascend Assessment is described as comprehensive because it evaluates lubricant, hardware, training, and procedures, and Noria states that its recommendations align with ISO 55001 and ICML 55.1. (Noria Corporation)

4.1 Assessment scope

Khash should assess all relevant oil and gas operating areas:

Upstream and production

• drilling rigs
• top drives
• mud pumps
• drawworks
• rotary tables
• BOP control units
• hydraulic power units
• pumpjacks
• artificial lift support systems
• wellhead control panels
• gas lift compressors
• production separators
• produced-water pumps
• chemical injection pumps
• generator sets
• cranes and winches
• offshore pedestal cranes
• seawater injection pumps
• firewater pumps

Midstream and gas processing

• gas turbine-driven compressors
• electric motor-driven compressors
• centrifugal compressors
• reciprocating compressors
• screw compressors
• dehydration units
• amine systems
• NGL recovery units
• pipeline pumps
• booster stations
• metering stations
• emergency generators
• hydraulic actuators
• valves and gear operators

LNG and cryogenic gas processing

• refrigerant compressors
• expander-compressors
• propane and mixed-refrigerant trains
• boil-off gas compressors
• cryogenic pump auxiliaries
• large motors and gear units
• gas turbines
• steam turbines
• lube oil consoles
• seal support systems
• hydraulic and control-oil systems

Refining and petrochemical

• API 610 process pumps
• steam turbines
• gas turbines
• centrifugal compressors
• reciprocating compressors
• screw compressors
• FCC air blowers
• hydrogen compressors
• coker hydraulic systems
• cooling tower gearboxes
• sulfur plant blowers
• reformer and hydrocracker rotating equipment
• gearboxes
• fans
• electric motors
• oil mist systems
• loading pumps
• tank farm pumps
• flare system auxiliaries

Terminals and tank farms

• pipeline transfer pumps
• loading arm hydraulics
• valve actuators
• gear operators
• firewater pumps
• marine loading equipment
• vapor recovery units
• compressors
• emergency generators
• dock cranes and winches

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5. Phase 1 assessment questions

Khash should ask technical and management-system questions at the same time.

5.1 Lubricant selection questions

• Are turbine oils selected by gas turbine type, steam turbine type, gearbox presence, operating temperature, OEM approval, varnish risk, and control-system sensitivity?
• Are compressor lubricants selected by gas composition, discharge temperature, pressure, process-gas solubility, cylinder lubrication needs, and OEM limits?
• Are reciprocating compressor cylinder oils compatible with process gas, condensate, H₂S, CO₂, and downstream process constraints?
• Are hydraulic fluids selected for fire risk, valve sensitivity, water exposure, seal compatibility, and hazardous-area requirements?
• Are gear oils selected by load, speed, metallurgy, micropitting risk, sump temperature, and API/OEM specifications?
• Are pump bearing lubricants compatible with oil bath, oil ring, purge mist, pure oil mist, grease, or circulating oil design?
• Are offshore and subsea-related fluids evaluated for water, salt, corrosion, and environmental constraints?

5.2 Contamination-control questions

• Are lube oil reservoirs sealed and properly breathed?
• Are desiccant breathers used where humidity, salt air, or tank breathing is significant?
• Are turbine and compressor oils filtered offline?
• Are hydraulic and control-oil systems meeting ISO cleanliness targets?
• Are gas turbine fuel-gas coalescers protecting fuel nozzles and combustor hardware?
• Are compressor lube systems protected from process-gas, condensate, glycol, amine, or water contamination?
• Are oil samples taken from live-zone sample ports?
• Are oil-analysis alarms converted into corrective work orders?
• Are water, particles, varnish, oxidation, and wear debris trended separately?
• Are oil mist consoles monitored for air pressure, oil feed, reclassifier condition, drain return, and consumption?

Pall’s oil and gas contamination-control guidance identifies several relevant contamination pathways, including solid particles in lube and hydraulic systems that can abrade bearings and affect servo-valves, liquid aerosols and solids in fuel gas that can create turbine operating problems and burner-tip fouling, and free water and solids in diesel that can cause corrosion and fouling. (Pall)

5.3 Machine-readiness questions

• Do critical assets have sample ports, quick-connect fill ports, drain valves, sight glasses, breathers, filter differential-pressure indicators, and safe access?
• Do API 614 lube consoles have adequate inspection and condition-monitoring points?
• Are pre-filter and post-filter sample points installed where filtration performance must be verified?
• Are turbine and compressor lube systems equipped for offline filtration, dehydration, varnish removal, or electrostatic/adsorptive treatment where required?
• Are standby machines preserved against humidity and false brinelling?
• Are oil mist systems physically verified at each bearing housing, not just checked at the console?
• Are remote offshore assets physically accessible for precision sampling and clean top-up?

5.4 Governance questions

• Who owns turbine oil health?
• Who owns compressor lubrication?
• Who owns oil analysis interpretation?
• Who approves lubricant substitutions?
• Who owns lube oil flushing before startup?
• Who reviews lube oil alarm bypasses?
• Who signs off on post-turnaround oil cleanliness?
• Who verifies that oil-analysis red alarms are closed?
• Who reviews lubrication KPIs with management?

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6. Phase 1 assessment outputs

Khash’s assessment deliverable should include:

1. ICML 55 / Ascend maturity score
2. Oil and gas lubrication risk map
3. Critical rotating-equipment list
4. API 614 lube oil system assessment
5. Turbine oil health assessment
6. Compressor lubrication assessment
7. Process pump lubrication assessment
8. Oil mist system assessment, where applicable
9. Hydraulic and control-oil cleanliness assessment
10. Lube room and satellite storage audit
11. Offshore lubricant logistics audit, if applicable
12. Oil-analysis program audit
13. Machine-readiness audit
14. Lubricant selection and consolidation review
15. Turnaround flushing and reservoir-cleaning review
16. Contractor and OEM service interface review
17. Lubrication-related failure history review
18. Quick-win list
19. 12–24 month roadmap
20. Five-year value case
21. KPI baseline

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7. Phase 2 — Engineering Design for oil and gas lubrication

The Engineering Design phase converts the assessment into engineered procedures, task libraries, lubricant specifications, hardware recommendations, oil-analysis architecture, and management controls. Noria describes this phase as building standard procedures, calculating proper volumes and frequencies, and providing lubricant and hardware recommendations based on equipment and goals. (Noria Corporation)

7.1 Required engineering data

For each lubricated asset, Khash should capture:

• asset ID
• equipment tag
• service
• process unit
• criticality
• spared or unspared status
• driver type
• driven equipment type
• API standard applicability
• OEM lubricant requirement
• current lubricant
• recommended lubricant
• lubricant volume
• oil system type
• bearing type
• gear type
• seal interface
• oil operating temperature
• oil pressure
• oil flow
• filtration type
• cooler type
• reservoir type
• breather type
• sample port location
• oil-analysis slate
• cleanliness target
• water target
• varnish monitoring requirement
• top-up method
• drain method
• flushing requirement
• preservation requirement
• PM task
• inspection task
• corrective action triggers
• responsible role

7.2 Engineering deliverables

Khash should produce:

• lubricated asset register
• lubrication point master list
• API 614 lube console register
• turbine oil management standard
• compressor lubrication standard
• process pump lubrication standard
• reciprocating compressor cylinder lubrication standard
• hydraulic and control-oil cleanliness standard
• oil mist system standard
• gear unit lubrication standard
• offshore lubricant logistics standard
• lubricant selection matrix
• approved lubricant list
• oil-analysis program manual
• varnish monitoring and mitigation procedure
• filtration and dehydration strategy
• lube oil flushing standard
• machine-readiness hardware BOM
• lube room and satellite storage design
• CMMS task library
• lubrication route library
• turnaround lubrication checklist
• training and competency matrix
• KPI dashboard
• RCA templates
• management-of-change procedure

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8. Phase 3 — Program Implementation

Implementation should be staged because oil and gas sites are high-consequence environments. Khash should begin with the assets where lubrication failure causes the largest operational, safety, and economic exposure.

8.1 Recommended pilot areas

1. Gas turbine lube and control oil systems
2. Centrifugal compressor lube oil systems
3. Reciprocating compressor frame and cylinder lubrication
4. API 610 process pump population
5. Oil mist system in refinery or petrochemical service
6. Hydraulic power units and control oil systems
7. Offshore crane and winch lubrication
8. Critical gearboxes and cooling tower gearboxes
9. Lube room, satellite storage, and filtered transfer
10. Oil-analysis workflow and abnormality closure

8.2 Implementation controls

The pilot should include:

• installed or upgraded sample ports
• desiccant or hybrid breathers
• offline filtration connections
• water-removal capability
• varnish monitoring for turbine oils
• oil-analysis alarm restructuring
• clean transfer containers
• filtered top-up procedure
• revised CMMS PMs
• oil mist console verification
• route-based pump bearing inspections
• hydraulic cleanliness targets
• contractor training
• operator abnormality reporting
• weekly implementation review
• monthly KPI review
• RCA trigger enforcement

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9. Oil and gas asset segmentation and technical controls

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9.1 Gas turbines

Typical lubricated systems:

• main turbine bearings
• accessory gearbox
• reduction gearbox, if installed
• starter system
• hydraulic/control oil system
• fuel control actuators
• lube oil reservoir
• lube oil pumps
• oil coolers
• filters
• trip and protection devices
• turning gear
• generator bearings

Dominant lubrication risks:

• high oil temperature
• oxidation
• varnish formation
• additive depletion
• water contamination
• air entrainment
• foaming
• filter plugging
• control valve sticking
• servo-valve sensitivity
• fuel gas contamination
• cyclic operation
• inadequate offline filtration
• lube oil cooler leakage
• incorrect oil mixing

Gas turbines present a distinct turbine-oil challenge because higher bearing temperatures and cyclic service increase oxidation and varnish risk. A Turbomachinery Laboratory tutorial notes that aero-derivative gas turbine oil may contact metal surfaces in the 204°C to 316°C range, with sump oil temperatures from 71°C to 121°C, and that cyclic service imposes thermal and oxidative stress on the oil. (turbolab.tamu.edu)

Khash’s controls

Khash should treat gas turbine lube oil as an A-class managed system:

• define OEM-approved turbine oil
• prohibit lubricant mixing without compatibility review
• establish viscosity, acid number, oxidation, RPVOT, RULER, MPC, water, particle count, and wear-metal alarms
• install live-zone sample ports
• install pre-filter and post-filter sample points
• monitor varnish potential using MPC or equivalent methods
• trend antioxidant depletion using RULER where the oil formulation and reference sample support it
• maintain oil cooler integrity
• verify filter beta rating and differential pressure
• manage water below turbine-specific limits
• review control-valve sticking as a lubrication and varnish event
• inspect reservoir internals during planned outages
• use kidney-loop filtration and varnish mitigation where needed
• connect oil-analysis exceptions to CMMS corrective work orders

Mobil’s turbine oil test guidance describes RULER as a method for comparing antioxidant levels in new and in-service oil and describes MPC testing as a method where membrane color and light blockage can indicate varnish-related deposits; it also cautions that interpretation should be application- and oil-specific. (Mobil)

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9.2 Steam turbines

Typical lubricated systems:

• journal bearings
• thrust bearings
• governor/control oil
• trip oil
• turning gear
• reduction gearbox, if installed
• oil reservoir
• pumps
• coolers
• filters
• shaft seals and auxiliary systems

Dominant lubrication risks:

• water ingress from steam seals
• oxidation
• varnish
• bearing metal temperature rise
• foam and air entrainment
• control oil contamination
• low oil pressure
• degraded oil cooler performance
• turbine trip system contamination
• reservoir sludge
• poor oil sampling location

API’s refining catalog lists API 611 for general-purpose steam turbines and API 612 for special-purpose steam turbines; API 612 also covers related lube oil systems, instrumentation, control systems, and auxiliary equipment. (American Petroleum Institute)

Khash’s controls

Khash should define:

• steam turbine oil specification
• water alarm limits
• control-oil cleanliness targets
• bearing metal temperature review
• trip-oil cleanliness verification
• periodic reservoir inspection
• oil cooler leak testing
• varnish monitoring for critical units
• condition-based oil change criteria
• oil purification or dehydration procedure
• outage flushing criteria
• startup cleanliness acceptance criteria

Oil-analysis guidance from Spectro Scientific states that water is a critical turbine oil contaminant and identifies particle counting as important for hydraulics, turbines, and filtered gearboxes. (spectrosci.com)

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9.3 Centrifugal compressors and expander-compressors

Typical lubricated systems:

• journal bearings
• thrust bearings
• gear couplings
• gearboxes
• lube oil console
• seal oil system, if installed
• dry gas seal support interface
• control oil
• inlet guide vane actuators
• compressor train gear unit
• driver bearings

Dominant lubrication risks:

• lube oil contamination
• process gas ingress
• seal system upset
• oil foaming
• bearing distress
• thrust bearing overload
• varnish in control systems
• high particle count
• water contamination
• oil cooler leaks
• filter bypass
• incorrect top-up
• startup after long standby
• poor flushing after maintenance

API 617 covers axial and centrifugal compressors and expander-compressors for special-purpose petroleum, chemical, and gas-industry applications. API 614 covers lubrication and oil-control systems that may serve compressors, gears, pumps, drivers, or complete trains. (American Petroleum Institute)

Khash’s controls

Khash should:

• classify each compressor train as spared, unspared, or process-critical
• define lube oil condition limits by train criticality
• maintain cleanliness targets appropriate for bearings and control devices
• monitor water, particles, viscosity, acid number, oxidation, additive health, wear metals, PQ index, and varnish potential
• inspect lube console filters, coolers, pumps, relief valves, accumulators, heaters, and reservoir internals
• verify sample ports on supply header, return header, pre-filter, post-filter, and reservoir
• define flushing and cleanliness acceptance criteria after turnaround
• treat high bearing temperature, high vibration, or thrust movement as lubrication review triggers
• coordinate dry gas seal panel issues with lube oil system reliability review
• maintain preservation plans for standby compressors

IOGP’s S-744 specification is an overlay to API 614 for lubrication and oil-control systems and auxiliaries, and it covers minimum requirements for special-purpose, unspared equipment in critical-service applications. (IOGP)

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9.4 Reciprocating compressors

Typical lubricated systems:

• crankcase / frame oil
• crosshead guides
• connecting rod bearings
• main bearings
• packing lubrication
• cylinder lubrication
• distance piece drains
• compressor valves
• rider rings and piston rings
• compressor drive gearbox
• driver engine or motor bearings

Dominant lubrication risks:

• over-lubrication of cylinders
• under-lubrication of cylinders
• process-gas dilution
• condensate washout
• lubricant carbonization
• valve deposits
• packing leakage
• frame oil contamination
• coolant ingress
• wear metals from bearings and crossheads
• incorrect cylinder oil feed rate
• poor divider-block verification
• plugged injection points
• lube pump failure

API 618 covers reciprocating compressors and drivers for petroleum, chemical, and gas-industry services, including machines with lubricated or non-lubricated cylinders and related lubrication systems, controls, instrumentation, intercoolers, aftercoolers, pulsation suppression devices, and auxiliaries. (American Petroleum Institute)

Khash’s controls

Khash should create a reciprocating compressor lubrication standard covering:

• frame oil specification
• cylinder oil specification
• feed-rate calculation
• divider-block inspection
• injection point verification
• packing lubrication review
• cylinder lubrication optimization
• valve deposit inspection
• used oil and drain sample analysis
• crosshead guide inspection
• frame oil sampling
• oil mist or force-feed lubrication review, where applicable
• process-gas compatibility
• hydrocarbon condensate effects
• high-discharge-temperature deposit risk
• condition-based feed-rate adjustment
• RCA for valve fouling, ring wear, packing failure, and cylinder scoring

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9.5 Screw compressors and rotary positive-displacement compressors

Typical lubricated systems:

• oil-flooded screw compressor lubricant circuit
• bearings
• timing gears
• separator elements
• oil coolers
• filters
• gearboxes
• coupling systems
• driver bearings

Dominant lubrication risks:

• gas solubility in oil
• viscosity loss
• oxidation
• carbon and varnish deposits
• high discharge temperature
• foaming
• oil carryover
• liquid slugging
• separator plugging
• water contamination
• additive depletion
• incorrect compressor oil substitution

Khash’s controls

Khash should:

• select compressor oil by gas type, discharge temperature, pressure, OEM approval, and oil carryover constraints
• monitor viscosity, acid number, oxidation, water, gas dilution, particle count, wear metals, and deposit tendency
• inspect separators and oil carryover trends
• review oil cooler performance
• control oil changes by condition and OEM limits
• investigate foaming and high carryover as oil-health issues
• maintain startup and shutdown preservation procedures
• coordinate oil selection with downstream process contamination risk

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9.6 API process pumps

Typical lubricated systems:

• rolling element bearings
• sleeve bearings
• oil bath housings
• constant-level oilers
• oil rings
• purge mist or pure mist systems
• grease-lubricated bearings
• magnetic drive pump bearings
• canned motor pump bearings
• mechanical seal support systems
• pump bearing housing breathers

Dominant lubrication risks:

• water ingress
• process fluid contamination
• bearing housing breathing
• overfilled or underfilled oil bath
• incorrect constant-level oiler setup
• oil ring instability
• bearing housing vent contamination
• wrong oil viscosity
• poor oil change practices
• grease over-application
• oil mist reclassifier defects
• standby pump corrosion
• false brinelling
• seal leakage into bearing housing

Khash’s controls

Khash should segment pumps by lubrication method:

Pump lubrication type	Khash’s control focus
Oil bath	level control, breathers, water exclusion, correct oil viscosity, magnetic plugs, sight glass, oil analysis for critical pumps
Oil ring	oil level, ring condition, shaft speed, oil viscosity, ring wear, ring stability
Pure oil mist	console pressure, clean dry air, reclassifier condition, oil feed rate, housing drains, mist distribution
Purge oil mist	bearing housing pressurization, contamination exclusion, sump oil inspection
Grease	calculated grease volume, purge path, motor bearing control, ultrasound-assisted greasing
Circulating oil	oil flow, pressure, filtration, cooling, sampling, and reservoir condition

Oil mist is especially relevant in refineries and petrochemical plants. A technical oil mist article describes pure oil mist as an atomized oil/air mixture that pressurizes bearing housings and continuously supplies clean oil mist, while conventional static oil sumps are more exposed to breathing, condensation, dirt, water, and contaminant accumulation. (modernpumpingtoday.com)

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9.7 Refinery and petrochemical gearboxes

Typical assets:

• cooling tower gearboxes
• air fin cooler gearboxes
• agitator drives
• extruder gearboxes
• conveyor drives
• coke handling gearboxes
• blower gearboxes
• sulfur plant drives
• tank mixer gearboxes
• loading pump gear units

Dominant lubrication risks:

• high temperature
• water ingress
• outdoor exposure
• acid gas or corrosive atmosphere
• wrong oil viscosity
• foam
• air entrainment
• micropitting
• poor breather condition
• unfiltered top-up
• lack of sample ports
• failure after long standby

Khash’s controls

Khash should:

• select gear oils by load, speed, metallurgy, operating temperature, EP requirements, and OEM limits
• use synthetic gear oils where temperature, energy, or long-life requirements justify them
• install desiccant breathers and sight glasses
• use quick-connect filtered top-up ports
• install sample ports on critical gearboxes
• trend viscosity, water, acid number, oxidation, particle count, wear metals, PQ index, and ferrous debris
• inspect magnetic plugs and filter debris
• establish oil change criteria by condition, not only calendar
• include cooling tower gearboxes in seasonal water-ingress review
• inspect standby gearboxes for corrosion and condensation

API 613 covers special-purpose enclosed precision gear units for refinery services, especially continuous-service units without installed spares. (American Petroleum Institute)

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9.8 Offshore platforms and FPSOs

Typical lubricated systems:

• gas turbines
• compressor trains
• seawater injection pumps
• firewater pumps
• cranes
• winches
• mooring systems
• thruster auxiliaries, where applicable
• generators
• hydraulic power units
• valve actuators
• emergency diesel engines
• lifeboat davits
• loading systems
• utility compressors
• HVAC equipment
• chemical injection pumps

Dominant lubrication risks:

• salt air
• high humidity
• seawater spray
• compact equipment layout
• limited storage space
• long lubricant supply chain
• difficult oil disposal
• hazardous-area restrictions
• high consequence of failure
• severe corrosion risk
• water contamination
• lubricant misidentification
• offshore contractor variability
• emergency equipment neglect

Khash’s controls

Khash should create an offshore lubrication-management standard covering:

• lubricant logistics and delivery control
• sealed offshore lubricant storage
• corrosion-resistant dispensing hardware
• dedicated transfer containers
• desiccant breathers and sealed reservoirs
• hydraulic cleanliness for crane and winch systems
• water and salt contamination screening
• emergency equipment lubrication verification
• pedestal crane slew bearing grease strategy
• wire rope lubrication
• marine and topside lubricant segregation
• helicopter or marine transport packaging requirements
• offshore waste-oil segregation
• permit-to-work integration
• intrinsically safe inspection tools where required
• spare oil filtration and sample verification after receipt

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9.9 Drilling rigs and well-service equipment

Typical lubricated systems:

• top drive gearbox
• drawworks
• mud pump power end
• rotary table
• traveling block and sheaves
• crown block
• BOP control hydraulic system
• iron roughneck
• pipe handling equipment
• catwalks
• winches
• hydraulic power units
• generator sets
• air compressors
• cranes
• wire ropes

Dominant lubrication risks:

• drilling mud contamination
• water and washdown
• abrasive solids
• shock load
• high torque
• hydraulic contamination
• grease starvation
• overgreasing
• poor field storage
• variable contractor execution
• missed wire rope lubrication
• rig moves and preservation failures

Khash’s controls

Khash should:

• define top drive gearbox oil cleanliness and oil-analysis requirements
• sample mud pump power-end oil for wear, viscosity, water, and contaminants
• control BOP hydraulic fluid cleanliness as a safety-critical system
• inspect wire ropes and sheaves with lubrication condition included
• use heavy-duty greases for high-load pins and bushings
• protect grease fittings from drilling mud and washdown
• require clean top-up containers on rig floor and maintenance areas
• document lubrication after rig moves
• audit contractor lubrication practices
• conduct RCA on repeated top drive, drawworks, mud pump, and hydraulic failures

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9.10 Pipeline compressor and pump stations

Typical assets:

• gas turbine-driven compressors
• electric motor-driven compressors
• reciprocating compressors
• pipeline pumps
• gearboxes
• hydraulic actuators
• valve operators
• emergency generators
• station air compressors
• cooling fans
• HVAC and utility equipment

Dominant lubrication risks:

• remote location
• long standby periods
• cold start
• high consequence of unavailability
• contamination during field service
• engine oil degradation
• compressor oil varnish
• water condensation
• low-frequency inspection
• oil-analysis delays

Khash’s controls

Khash should:

• use route-based inspections with remote digital reporting
• add online sensors for critical units where feasible
• manage standby preservation
• trend oil condition by station and equipment type
• establish oil-analysis logistics with defined turnaround time
• control contractor top-up practices
• use desiccant breathers and sealed reservoirs
• define cold-weather lubricant requirements
• include engine oil, compressor oil, gearbox oil, and hydraulic fluid in a common reliability dashboard

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10. Lubricant selection and consolidation strategy

Oil and gas facilities often have many lubricant SKUs because of OEM requirements, API equipment classes, legacy assets, contractor packages, offshore logistics, and specialty fluids. Khash should consolidate carefully, without violating OEM or process requirements.

10.1 Major lubricant families

Lubricant family	Typical applications
R&O turbine oils	Steam turbines, frame gas turbines, compressors, large circulating systems
Synthetic gas turbine oils	Aero-derivative gas turbines and high-temperature turbine applications
Compressor oils	Centrifugal, screw, reciprocating, and process gas compressors
Reciprocating compressor cylinder oils	Lubricated compressor cylinders and packing systems
Hydraulic oils	HPUs, valve actuators, crane hydraulics, control systems
Fire-resistant hydraulic fluids	High-fire-risk hydraulic systems where required
Gear oils	Gearboxes, reducers, cooling tower drives, agitators, loading systems
Engine oils	Gas engines, diesel generators, emergency engines, mobile support equipment
Greases	Electric motors, pump bearings, valves, cranes, winches, wire rope, couplings
Oil mist lubricants	Refinery and petrochemical pump and motor bearing populations
Heat transfer / specialty fluids	Specialized rotating or auxiliary systems
Environmentally acceptable lubricants	Offshore or water-exposure applications where required by site/environmental rules
Anti-seize and assembly lubricants	Turnaround maintenance, threaded connections, high-temperature bolting

10.2 Selection criteria for turbine oils

Khash should specify:

• OEM approval
• viscosity grade
• oxidation stability
• RPVOT or equivalent oxidation reserve
• RULER antioxidant trend method
• varnish potential testing method
• demulsibility
• air release
• foam tendency
• rust and corrosion protection
• filterability
• seal compatibility
• control-oil compatibility
• additive compatibility with existing oil
• water target
• cleanliness target
• varnish alarm limits
• condition-based replacement limits

10.3 Selection criteria for compressor oils

Khash should specify:

• compressor type
• gas composition
• gas solubility in lubricant
• discharge temperature
• discharge pressure
• oxidation and deposit control
• viscosity at operating condition
• seal compatibility
• oil carryover constraints
• downstream process sensitivity
• cylinder lubrication rate
• condensate washout risk
• H₂S/CO₂ exposure
• compatibility with existing lubricant
• OEM approval
• oil-analysis test slate

10.4 Selection criteria for hydraulic and control oils

Khash should specify:

• pump type
• valve sensitivity
• servo/proportional valve requirements
• fire risk
• water exposure
• air release
• foam control
• filterability
• seal compatibility
• cleanliness target
• varnish risk
• operating temperature
• startup temperature
• offshore environmental constraints
• approved alternate
• changeover procedure

10.5 Consolidation rules

Khash should not consolidate:

• gas turbine oils without OEM and varnish-risk review
• frame turbine oils and aero-derivative synthetic oils unless explicitly allowed
• reciprocating compressor cylinder oils into generic compressor oils
• hydraulic oils across fire-resistant, environmentally sensitive, and servo-valve systems without engineering review
• oil mist lubricants into ordinary pump oils without system compatibility review
• engine oils across gas engines and diesel engines without OEM approval
• wet, salty offshore grease applications into ordinary multipurpose grease
• electric motor grease into heavy EP or moly grease
• seal oil systems without seal vendor and OEM approval
• compressor oils where downstream process contamination matters

The output should be an Approved Lubricant List with product code, application, viscosity or NLGI grade, OEM approval, API/OEM constraints, approved alternate, storage code, transfer method, compatibility restrictions, and management-of-change rules.

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11. Contamination-control strategy

In oil and gas, contamination control must address:

• particulate contamination
• water contamination
• salt contamination
• process gas contamination
• hydrocarbon condensate
• amine
• glycol
• diesel contamination
• fuel gas aerosols
• varnish precursors
• wear debris
• maintenance debris
• seal leakage
• filter bypass events

11.1 Particle contamination

Khash should establish cleanliness targets for every critical oil system:

Asset class	Suggested initial cleanliness target
Servo/control hydraulic systems	ISO 15/13/10 or cleaner
Critical turbine control oil	ISO 16/14/11 or cleaner
Gas turbine lube oil	ISO 16/14/11 to 17/15/12
Steam turbine lube oil	ISO 16/14/11 to 17/15/12
Centrifugal compressor lube oil	ISO 16/14/11 to 17/15/12
Critical gearboxes	ISO 18/16/13
General gearboxes	ISO 19/17/14
Process pump oil bath	managed by inspection, water exclusion, particle control, and periodic analysis for critical pumps
Oil mist systems	managed by oil supply cleanliness, console filtration, distribution integrity, and bearing housing verification

11.2 Water contamination

Water enters through:

• steam seal leakage
• cooler tube leaks
• condensation
• offshore humidity
• saltwater spray
• washdown
• reservoir breathers
• bad storage practices
• process leaks
• tank breathing
• poor maintenance practices

Khash should implement:

• desiccant breathers
• sealed reservoirs
• bottom drains
• BS&W bowls
• Karl Fischer water testing
• online moisture sensors
• vacuum dehydration
• coalescing filtration
• centrifuges
• oil cooler leak testing
• steam seal leak review
• offshore salt contamination checks
• water ingress RCA

For turbine lube and control systems, some oil-analysis guidance uses very low water targets; Spectro Scientific’s turbine oil guidance states that water contamination should be monitored and gives 100 ppm as a limit for turbine lube and control systems. (spectrosci.com)

11.3 Varnish and oxidation control

Varnish is a major issue in turbine, compressor, and hydraulic/control oil systems. Khash should manage varnish through:

• temperature control
• oil cooler performance
• antioxidant monitoring
• RULER testing
• MPC testing
• ultracentrifuge testing where useful
• filter inspection
• valve deposit investigation
• reservoir cleaning
• electrostatic, depth-media, or adsorptive varnish mitigation where appropriate
• oil compatibility control
• avoid mixing turbine oils without review
• condition-based oil replacement
• post-mitigation verification

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12. Machine lubrication readiness

Khash should make every critical machine physically ready for precision lubrication.

12.1 Required hardware for oil systems

Critical oil-lubricated assets should have:

• live-zone sample ports
• pre-filter sample ports
• post-filter sample ports
• reservoir sample points
• desiccant or hybrid breathers
• quick-connect fill ports
• quick-connect filtration ports
• bottom drain valves
• BS&W bowls
• sight glasses
• columnar level gauges
• filter differential-pressure indicators
• offline filtration connections
• online particle counters for critical systems
• online moisture sensors for water-sensitive systems
• reservoir inspection hatches
• magnetic plugs or magnetic separators
• spill containment points
• safe sampling access
• clear lubricant identification plates

12.2 Required hardware for grease systems

Grease-lubricated assets should have:

• tagged grease points
• grease fitting caps
• remote grease manifolds where access is unsafe
• purge paths
• relief fittings
• calibrated grease guns
• grease-gun color coding
• ultrasound-assisted greasing for applicable bearings
• single-point lubricators where justified
• centralized grease system alarms
• injector verification
• line protection in offshore and drilling environments
• wire rope lubricant application tools

12.3 Required hardware for API 614-style lube consoles

Khash should ensure that critical lube consoles have:

• clear asset tag and service label
• clean reservoir access
• properly configured sample ports
• oil heater and cooler condition checks
• dual filters where required by design
• filter DP monitoring
• spare pump auto-start verification
• pressure alarm verification
• temperature alarm verification
• low level alarm verification
• accumulator checks where applicable
• oil mist eliminator or vapor control where applicable
• reservoir drain and sludge inspection points
• offline filtration connection
• flush connection
• return-line inspection capability

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13. Oil analysis and condition monitoring

Oil analysis should be built by equipment class and failure mode, not by a generic “monthly oil sample” template.

13.1 Test slate by asset class

Asset class	Routine tests	Advanced / exception tests
Gas turbines	viscosity, acid number, water, ISO particle count, elemental analysis, FTIR oxidation, RPVOT, RULER, MPC, PQ/ferrous debris	ultracentrifuge, varnish deposit analysis, foam, air release, demulsibility, filter debris
Steam turbines	viscosity, acid number, water, particle count, RPVOT, RULER, MPC, elemental analysis	demulsibility, foam, air release, varnish mitigation verification
Centrifugal compressors	viscosity, water, particle count, acid number, oxidation, elemental metals, PQ, varnish potential	ferrography, filter debris, gas contamination investigation
Reciprocating compressor frame oil	viscosity, water, oxidation, acid number, particle count, wear metals, PQ	ferrography, coolant/process contamination testing
Reciprocating compressor cylinder oil	drain analysis, viscosity, insolubles, wear metals, deposit tendency, feed-rate review	valve deposit analysis, cylinder inspection correlation
Screw compressor oil	viscosity, acid number, oxidation, water, particle count, wear metals, gas dilution indicators	deposit analysis, separator performance review
Hydraulic/control oil	particle count, water, viscosity, acid number, FTIR, elemental analysis	varnish potential, patch microscopy, servo-valve deposit analysis
Gearboxes	viscosity, water, acid number, particle count, wear metals, PQ/ferrous debris	analytical ferrography, magnetic plug debris analysis
Engines	viscosity, soot, fuel dilution, glycol, water, TBN/TAN, oxidation, nitration, wear metals	ferrography, coolant leak confirmation
Greases	consistency, oxidation, water, wear metals, contamination, microscopy	worked penetration, dropping point, thickener compatibility

13.2 Sampling frequency

Criticality	Example assets	Suggested frequency
A-class	unspared gas turbines, compressor trains, FCC blowers, critical steam turbines, critical hydraulic systems	monthly, biweekly during instability, online sensors where justified
B-class	process compressors, key pumps, critical gearboxes, major hydraulic units	monthly to quarterly
C-class	noncritical gearboxes, utility pumps, small reducers	semiannual, annual, or exception-based
Post-turnaround	flushed lube systems, rebuilt gearboxes, turbine oil systems, compressor trains	startup baseline, then early-life follow-up
Abnormal condition	water, varnish, high particles, high bearing temperature, trip oil issue, filter bypass	immediate sample and corrective action

13.3 Oil-analysis workflow

Khash should enforce:

1. Sample from correct point.
2. Sample under stable operating condition.
3. Flush sample port correctly.
4. Record equipment hours, lubricant hours, top-up volume, filter changes, and abnormal observations.
5. Use equipment-specific test slate.
6. Apply absolute, rate-of-change, and statistical alarms.
7. Review by trained reliability or oil-analysis personnel.
8. Create corrective work order.
9. Close action with evidence.
10. Verify with follow-up sample.
11. Feed results into RCA and KPIs.

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14. Integration with machinery protection and condition monitoring

Lubrication data should not live separately from vibration, temperature, process, and protection-system data. API 670 covers machinery protection systems measuring parameters such as radial shaft vibration, casing vibration, shaft axial position, rotational speed, piston rod drop, phase reference, overspeed, surge detection, and critical machinery temperatures such as bearing metal and motor winding temperatures. (American Petroleum Institute)

Khash should integrate lubrication data with:

• vibration analysis
• bearing metal temperature
• shaft displacement
• thrust position
• oil pressure
• oil temperature
• oil flow
• filter differential pressure
• online particle count
• online water sensors
• oil-analysis results
• process alarms
• trip events
• machinery protection events
• CMMS failure codes

For example, a centrifugal compressor thrust-position alarm should trigger not only mechanical inspection but also review of oil viscosity, oil pressure, filter condition, oil temperature, bearing wear debris, and recent oil-analysis alarms.

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15. Precision lubrication task engineering

Khash should eliminate vague PM language.

15.1 Bad PM language to remove

• “Check lube oil.”
• “Grease pump.”
• “Inspect compressor.”
• “Change turbine oil annually.”
• “Top up if required.”
• “Lubricate crane.”
• “Check oil mist system.”
• “Use standard grease.”

15.2 Required structure for oil-system inspection tasks

Each inspection task should define:

• asset ID
• system ID
• lubricant code
• normal oil level
• normal oil temperature
• normal oil pressure
• normal oil flow
• filter DP limit
• sample due status
• breather condition
• cooler condition
• water inspection method
• foam and aeration criteria
• leakage criteria
• offline filtration status
• alarm status
• bypass status
• top-up volume
• abnormality code
• required corrective action

15.3 Required structure for grease tasks

Each grease task should define:

• asset ID
• lubrication point ID
• component type
• bearing type
• grease code
• quantity in grams
• calibrated grease-gun strokes
• interval
• running or stopped condition
• purge requirement
• ultrasound requirement
• safety and permit requirement
• hazardous-area access limitations
• abnormal purge condition
• corrective action trigger

15.4 Required structure for oil change or flushing tasks

Each task should define:

• pre-change sample
• drain temperature
• drain method
• low-point drain requirement
• reservoir cleaning requirement
• filter replacement
• breather replacement
• flushing oil or system oil decision
• target cleanliness
• target water level
• acceptance sample
• refill through filtration
• post-fill baseline sample
• restart inspection
• waste-oil segregation
• follow-up sample interval

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16. Model procedure: gas turbine / compressor train API 614 lube oil system

Purpose

Maintain clean, dry, chemically stable, varnish-controlled oil supply to turbine/compressor bearings, gear units, and control devices.

Daily operator inspection

• Check reservoir level.
• Check supply pressure.
• Check supply temperature.
• Check return temperature.
• Check filter differential pressure.
• Verify no active lube oil alarms.
• Check standby pump availability.
• Inspect cooler status.
• Inspect visible oil for foam, haze, darkening, or water.
• Check breather condition.
• Inspect for external leaks.
• Record top-up volume.
• Report abnormal bearing metal temperature, vibration, or thrust position.

Weekly lubrication technician task

• Inspect sample ports.
• Verify offline filtration operation.
• Check filter bypass indicators.
• Inspect reservoir drain for water or sludge.
• Verify correct lubricant for any top-up.
• Review top-up trend.
• Check for oil cooler leakage signs.
• Inspect lube console instrumentation.
• Review varnish mitigation equipment, if installed.

Monthly condition-monitoring task

• Sample live-zone supply oil.
• Sample return oil where wear diagnosis requires it.
• Sample post-filter oil where filtration performance must be verified.
• Test viscosity, acid number, water, ISO particle count, elemental metals, oxidation, RULER, MPC, and other assigned turbine/compressor tests.
• Review bearing temperature, vibration, filter DP, and oil-analysis trends together.
• Issue corrective work orders for water, varnish, particles, viscosity shift, oxidation, or wear debris.

Corrective action triggers

• high water
• high particle count
• sudden viscosity change
• acid number rise
• antioxidant depletion
• MPC varnish alarm
• filter DP increase
• filter bypass
• oil cooler leak suspicion
• bearing temperature rise
• control valve sticking
• trip oil or control oil instability
• abnormal wear debris
• unauthorized oil addition

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17. Model procedure: refinery process pump lubrication

Purpose

Prevent pump bearing failures by controlling lubricant level, lubricant cleanliness, water ingress, bearing housing breathing, oil mist delivery, and grease quantity.

Oil bath pump checks

• Verify oil level at correct operating condition.
• Inspect sight glass or constant-level oiler.
• Check for water haze, dark oil, foam, or sediment.
• Inspect bearing housing breather.
• Inspect for seal leakage into bearing housing.
• Check bearing housing temperature.
• Inspect for leaks.
• Confirm correct oil for top-up.
• Record top-up volume.

Oil mist pump checks

• Check oil mist console pressure.
• Check oil level in console.
• Check air supply quality.
• Check reclassifier condition.
• Inspect distribution header.
• Verify oil mist reaches bearing housings.
• Inspect drain bottles or collectors.
• Confirm abnormal consumption is investigated.
• Inspect standby pumps for proper mist exposure.

Grease-lubricated pump checks

• Use calculated grease volume.
• Clean grease fitting before application.
• Apply only specified grease.
• Use ultrasound feedback where applicable.
• Confirm purge path.
• Avoid overgreasing motor bearings.
• Record abnormal temperature, noise, or purge appearance.

Corrective action triggers

• water in oil
• oil level instability
• constant-level oiler malfunction
• bearing temperature increase
• oil mist low pressure
• reclassifier blockage
• grease purge contamination
• repeated seal leakage
• repeated bearing failures
• wrong lubricant addition

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18. Model procedure: reciprocating compressor lubrication

Purpose

Control frame oil condition, cylinder lubrication rate, packing lubrication, deposit formation, and wear.

Daily checks

• Check frame oil level.
• Check frame oil pressure and temperature.
• Check divider-block operation.
• Check cylinder lube pump status.
• Check lube oil day tank level.
• Check packing vent and distance piece drains.
• Inspect for oil leakage.
• Record cylinder oil consumption.
• Review compressor discharge temperature.
• Review valve temperature or valve performance indicators where available.

Weekly checks

• Verify cylinder oil feed rates.
• Inspect injection lines.
• Inspect divider blocks.
• Check for blocked injection points.
• Review used-oil or drain observations.
• Inspect frame oil for foam, haze, or darkening.
• Review compressor valve deposit history.

Oil-analysis tasks

• Sample frame oil routinely.
• Analyze for viscosity, water, acid number, oxidation, particle count, wear metals, and ferrous debris.
• Review cylinder oil drain samples where feasible.
• Correlate feed rate, discharge temperature, deposits, valve failures, ring wear, and packing failures.

Corrective action triggers

• high frame oil wear metals
• high cylinder deposits
• high oil consumption
• low oil consumption
• blocked divider block
• high discharge temperature
• valve fouling
• packing failure
• ring or rider band wear
• water or process contamination
• incorrect cylinder oil

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19. Model procedure: offshore hydraulic power unit

Purpose

Maintain hydraulic fluid cleanliness and water control in offshore crane, valve actuator, winch, and control systems.

Daily / shift checks

• Check reservoir level.
• Check hydraulic oil temperature.
• Check pressure stability.
• Inspect filter differential pressure.
• Check breather condition.
• Inspect for leaks.
• Check for foam or aeration.
• Review alarms.
• Confirm no unfiltered top-up.

Weekly checks

• Inspect desiccant breather.
• Check water sensor or field water test.
• Verify offline filtration operation.
• Inspect hose condition.
• Inspect actuator leakage.
• Check top-up trend.
• Confirm lubricant identity.

Monthly / quarterly oil analysis

• ISO particle count
• water by Karl Fischer
• viscosity
• acid number
• FTIR oxidation
• elemental metals
• additive trend
• patch microscopy if particle source is unclear
• varnish potential if valve sticking occurs

Corrective action triggers

• particle count above target
• water above target
• salt contamination suspicion
• repeated filter plugging
• valve sticking
• actuator sluggishness
• pump noise
• foaming
• high temperature
• unfiltered top-up
• repeated leaks

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20. Lubricant storage and handling design

20.1 Main lube room

The main lube room should include:

• enclosed clean storage
• humidity control where practical
• bunded bulk tanks
• desiccant breathers
• dedicated filtration loops
• dedicated dispensing lines
• sample taps
• bottom drains
• color-coded lubricant identification
• shape-coded transfer connections
• sealed transfer containers
• grease storage cabinets
• calibrated grease guns
• filter-cart storage
• sample bottle storage
• receiving inspection area
• quarantine area
• used-oil segregation
• spill kits
• SDS access
• approved lubricant list display
• hazardous-area handling instructions

20.2 Offshore and remote storage

Offshore and remote sites require additional controls:

• sealed containers during marine or helicopter transport
• corrosion-resistant storage cabinets
• product segregation in limited space
• small-volume transfer discipline
• waste-oil return logistics
• emergency lubricant stock levels
• no unmarked containers
• no open funnels
• contractor-issued lubricant control
• verification of lubricant after long storage
• water screening after transport or storage exposure

20.3 Receiving inspection

Every lubricant delivery should be checked for:

• product name
• product code
• batch number
• container condition
• seal integrity
• certificate of analysis where required
• water contamination evidence
• correct labeling
• approved product list match
• shelf-life status
• storage location
• quarantine requirement

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21. CMMS, lubrication software, and route governance

Khash should integrate lubrication into the CMMS/EAM and a lubrication-specific platform where available. Noria’s LPD model explicitly includes route design and lubrication-management software during implementation. (Noria Corporation)

21.1 Required lubrication master data

Each lubrication point should have:

• facility
• process unit
• equipment tag
• component tag
• lubrication point ID
• lubricant code
• volume
• frequency
• method
• running or shutdown requirement
• hazardous-area access requirement
• permit requirement
• sample point ID
• oil-analysis test slate
• cleanliness target
• water target
• varnish monitoring requirement
• inspection criteria
• abnormality codes
• corrective action trigger
• responsible role
• procedure link

21.2 Route design principles

Routes should be separated by:

• clean oil sampling versus dirty greasing
• hazardous-area route requirements
• running inspection versus shutdown lubrication
• turbine/compressor oil systems versus general plant assets
• offshore topside route versus marine utility route
• lube oil console inspections versus process pump inspections
• oil mist console route versus bearing housing verification route
• hydraulic system sampling versus mechanical lubrication
• turnaround flushing tasks versus routine PMs

21.3 CMMS integration

The CMMS should manage:

• lubrication PMs
• oil sampling work orders
• abnormal oil-analysis actions
• filter changes
• breather replacements
• varnish mitigation tasks
• dehydration tasks
• reservoir cleaning
• flushing work packages
• oil mist system inspections
• grease system inspections
• leak repairs
• management-of-change approvals
• turnaround lubrication scope
• RCA corrective actions
• lube room audits
• training assignments

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22. Training and competency program

Khash should create a role-based competency matrix.

Role	Required competency
Facility manager	business case, risk exposure, KPI review, resource allocation
Maintenance manager	PM compliance, backlog, contractor control, turnaround integration
Rotating equipment engineer	turbines, compressors, pumps, gearboxes, API interfaces, RCA
Reliability engineer	oil analysis, contamination control, varnish, failure modes, KPIs
Lube technician	sampling, filtration, transfer, greasing, oil mist checks, route execution
Operations technician	daily lube inspections, alarm reporting, abnormality recognition
Planner / scheduler	lube PM planning, shutdown work, oil sampling, corrective work integration
Storeroom / warehouse	receipt, storage, FIFO, product control, contamination exclusion
Offshore technician	logistics, sealed transfer, corrosion control, hazardous-area practices
Contractor / OEM service provider	site lubrication standards, approved lubricants, sampling discipline
EHS	spill control, waste oil, hazardous-area work, offshore/environmental constraints
Procurement	approved product list, substitutions, supplier controls, batch records

Training modules should include:

• ICML 55 lubrication management
• oil and gas rotating equipment lubrication
• turbine oil management
• compressor lubrication
• API 614 lube systems
• process pump lubrication
• oil mist systems
• hydraulic cleanliness
• oil sampling
• oil-analysis interpretation
• varnish detection and mitigation
• contamination control
• filtered transfer
• grease selection and calculated greasing
• hazardous-area lubrication practices
• offshore lubricant logistics
• lube room management
• CMMS/LubePM route execution
• lubrication RCA

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23. Lubrication-focused RCA

Khash should define mandatory RCA triggers.

23.1 Mandatory RCA events

• gas turbine trip related to lube/control oil
• steam turbine bearing or control-oil event
• compressor bearing failure
• compressor thrust bearing distress
• recurring compressor valve deposits
• reciprocating compressor cylinder scoring
• process pump repeated bearing failure
• oil mist distribution failure
• hydraulic servo-valve sticking
• filter collapse or bypass
• varnish alarm on critical turbine/compressor system
• water contamination above critical limit
• unauthorized lubricant substitution
• wrong oil addition
• recurring oil cooler leaks
• startup failure after turnaround flushing
• major lube oil leak or spill
• offshore crane or winch lubrication failure
• emergency generator lubrication failure
• failed oil-analysis response that allowed breakdown

23.2 RCA taxonomy

Root causes should be coded as:

• wrong lubricant
• wrong viscosity
• wrong additive chemistry
• lubricant incompatibility
• mixed turbine oils
• wrong compressor cylinder oil
• over-lubrication
• under-lubrication
• blocked lubrication line
• failed lube pump
• filter bypass
• high particle count
• water ingress
• steam leak
• oil cooler leak
• salt contamination
• process gas contamination
• hydrocarbon condensate dilution
• amine/glycol contamination
• oxidation
• varnish
• foam
• air entrainment
• reservoir sludge
• poor breather
• poor sample point
• poor oil-analysis interpretation
• no corrective work order
• poor flushing
• poor storage and handling
• unfiltered top-up
• contractor noncompliance
• poor preservation
• instrumentation failure
• alarm bypass
• design deficiency
• training gap

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24. Environmental, waste, and safety controls

Oil and gas lubrication management must integrate with EHS.

Khash should implement:

• lubricant consumption tracking by unit and asset
• used-oil segregation by fluid type
• hazardous waste classification where applicable
• oil-contaminated water control
• secondary containment for bulk tanks
• spill kits and spill-response training
• offshore waste-oil return procedure
• leak tagging and repair backlog
• grease purge control
• oil mist drain management
• hydraulic leak reduction
• hot-surface leak review
• fire-risk review for oil leaks near turbines and exhaust systems
• permit-to-work integration
• control of lubricant handling in classified areas
• management of lubricant substitutions through MOC

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25. Oil and gas KPIs

25.1 Leading indicators

• lubrication PM compliance
• route quality score
• oil-analysis sample compliance
• oil-analysis alarm closure time
• percentage of critical assets with correct sample ports
• percentage of critical reservoirs with correct breathers
• percentage of assets meeting cleanliness targets
• percentage of assets meeting water targets
• percentage of turbine oils with current RULER/MPC data
• hydraulic cleanliness compliance
• oil mist system inspection compliance
• filtered top-up compliance
• lube room audit score
• offshore storage audit score
• grease-gun calibration compliance
• lubricant cross-contamination incidents
• wrong-fill incidents
• unapproved substitution incidents
• lube-related RCA completion rate
• corrective action closure rate
• training completion by role

25.2 Lagging indicators

• lubrication-related downtime
• gas turbine lube/control oil events
• compressor bearing failures
• process pump bearing failures
• hydraulic valve failures
• emergency oil changes
• oil disposal volume
• lubricant consumption
• grease consumption
• filter consumption
• recurring water contamination events
• recurring varnish events
• compressor valve deposit failures
• oil mist-related bearing failures
• MTBF of critical rotating equipment
• maintenance cost from lubrication-related failures
• production loss from lubrication-related downtime

25.3 Business KPIs

Khash should also track:

• avoided downtime value
• reduction in emergency maintenance
• extended turbine oil life
• extended compressor oil life
• reduced pump bearing replacement cost
• reduced hydraulic component replacement cost
• reduced lubricant inventory value
• reduced waste-oil disposal cost
• improved planned-maintenance ratio
• reduced turnaround startup defects
• reduced spare equipment preservation failures

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26. Governance and management review

Khash should set two governance levels.

26.1 Monthly tactical lubrication review

Participants:

• rotating equipment engineer
• reliability engineer
• lube technician
• operations representative
• maintenance supervisor
• oil-analysis coordinator
• planner
• contractor/OEM representative where relevant

Agenda:

• overdue lubrication PMs
• oil-analysis red alarms
• turbine oil health
• compressor oil health
• water and cleanliness exceptions
• varnish trend
• oil mist defects
• hydraulic contamination issues
• lube room audit findings
• top-up and leakage trends
• corrective actions
• upcoming turnaround lubrication scope
• training gaps

26.2 Quarterly management review

Participants:

• facility manager
• maintenance manager
• operations manager
• reliability manager
• rotating equipment lead
• EHS
• procurement
• finance
• Khash / Noria program lead

Agenda:

• KPI dashboard
• value captured
• top ten lubrication risks
• lube-related RCA findings
• critical asset oil-health summary
• API 614 system improvement status
• hardware modification progress
• lubrication-related production losses
• contractor performance
• management-of-change log
• budget and resources
• next-quarter implementation priorities

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27. Implementation roadmap for an oil and gas facility

Stage 0 — Charter and scope

Deliverables:

• lubrication-management policy
• ICML 55 implementation scope
• facility boundaries
• critical asset list
• API equipment list
• operating unit map
• governance team
• EHS constraints
• contractor scope
• baseline data request
• communication plan

Stage 1 — Assessment

Deliverables:

• ICML 55 / Ascend maturity assessment
• API 614 lube system audit
• turbine oil audit
• compressor lubrication audit
• pump lubrication audit
• hydraulic cleanliness audit
• oil mist audit
• lubricant inventory review
• storage and handling audit
• oil-analysis audit
• machine-readiness audit
• offshore logistics audit, if applicable
• turnaround lubrication review
• quick-win list
• business case
• implementation roadmap

Stage 2 — Engineering Design

Deliverables:

• lubricated asset register
• lubrication point master list
• API lube console register
• lubricant selection matrix
• approved lubricant list
• turbine oil management standard
• compressor lubrication standard
• process pump lubrication standard
• hydraulic cleanliness standard
• oil mist standard
• oil-analysis program manual
• varnish monitoring plan
• filtration and dehydration strategy
• flushing standard
• lube room design
• offshore storage standard
• machine hardware modification BOM
• CMMS PM library
• lubrication route library
• training matrix
• KPI dashboard
• RCA templates

Stage 3 — Pilot implementation

Recommended pilot sequence:

1. Gas turbine lube and control oil system
2. Centrifugal compressor train lube console
3. Process pump lubrication and oil mist system
4. Reciprocating compressor lubrication
5. Hydraulic and control-oil cleanliness
6. Lube room and filtered transfer upgrade
7. Offshore or remote lubricant storage upgrade
8. Oil-analysis workflow and abnormality closure

Pilot deliverables:

• installed sample ports and breathers
• revised PMs
• oil-analysis baseline
• varnish monitoring baseline
• filtered transfer process
• trained technicians and operators
• route deployment
• abnormality-to-work-order process
• weekly implementation review
• KPI dashboard

Stage 4 — Facilitywide rollout

Deliverables:

• all critical rotating equipment covered
• all oil systems assigned cleanliness and water targets
• lube room and satellite cabinets upgraded
• CMMS fully updated
• oil-analysis program optimized
• contractor standards enforced
• MOC process active
• turnaround flushing standard active
• management reviews active
• RCA triggers enforced

Stage 5 — Sustainment and ICML 55 readiness

Deliverables:

• internal audit checklist
• evidence records
• management-review records
• corrective-action register
• KPI trend analysis
• updated value case
• maturity reassessment
• ICML 55 conformance-readiness review
• continuous-improvement backlog

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28. Final consulting deliverable package for the oil and gas industry

Khash’s final oil and gas ICML 55 implementation package should include:

1. Oil and Gas Lubrication Management Policy
2. ICML 55 Lubrication Management Plan
3. Lubricated Asset Register
4. Lubrication Point Master List
5. API 614 Lube Oil System Register
6. Critical Rotating Equipment Lubrication Standard
7. Gas Turbine Oil Management Standard
8. Steam Turbine Oil Management Standard
9. Centrifugal Compressor Lubrication Standard
10. Reciprocating Compressor Lubrication Standard
11. Process Pump Lubrication Standard
12. Oil Mist Lubrication Standard
13. Hydraulic and Control-Oil Cleanliness Standard
14. Gearbox Lubrication Standard
15. Offshore Lubricant Logistics Standard
16. Drilling and Well-Service Lubrication Standard
17. Lubricant Selection and Consolidation Study
18. Approved Lubricant List
19. Oil-Analysis Program Manual
20. Turbine Oil Varnish Monitoring Procedure
21. Filtration and Dehydration Strategy
22. Lube Oil Flushing Standard
23. Storage and Handling Standard
24. Lube Room and Satellite Cabinet Design
25. Machine Hardware Modification BOM
26. Sampling Port Installation Plan
27. Precision Greasing Procedures
28. CMMS PM Task Library
29. Lubrication Route Library
30. Turnaround Lubrication Checklist
31. Contractor Lubrication Compliance Standard
32. Training and Competency Matrix
33. Lubrication RCA Templates
34. Waste Oil and Spill Control Procedure
35. Lubricant Management-of-Change Procedure
36. KPI Dashboard
37. Audit and Management Review Procedure
38. 12–24 Month Implementation Roadmap

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29. Oil and gas industry conclusion

For oil and gas, Khash should implement ICML 55 as a critical rotating-equipment lubrication-management system. The program must be technically deep enough to handle turbines, compressors, API lube consoles, process pumps, oil mist systems, hydraulic/control oil systems, offshore logistics, and turnaround flushing, while also being auditable enough to satisfy management-system expectations.

The highest-value priorities are:

gas turbine oil health, compressor lube console cleanliness, turbine oil varnish control, process pump bearing reliability, oil mist verification, hydraulic and control-oil cleanliness, water and salt contamination control, reciprocating compressor cylinder lubrication, lube oil flushing after turnarounds, lubricant MOC, contractor compliance, and lubrication-focused RCA.