Industrial · Automotive · Heavy Equipment
Premium Industrial Greases for Heavy Duty Equipment and Machinery
Protect bearings, chassis, pins, bushes, gears and critical moving components with premium LubeMax greases engineered for demanding industrial and automotive applications.
Grease Fundamentals
What is lubricating grease?
Grease is a semi-solid lubricant designed to remain at a lubrication point while releasing lubricating oil into the contact zone as machinery operates. It is commonly used where a liquid oil would leak away, where frequent oil circulation is impractical, or where the lubricant must also help resist the entry of water, dust and process contamination.
Base oil
The base oil performs much of the actual lubricating work. Its viscosity, mineral or synthetic composition and response to temperature influence film formation, pumpability and operating range. Base-oil viscosity and NLGI consistency are different properties; a firm grease can contain a relatively light base oil, and a softer grease can contain a heavier one.
Thickener system
The thickener holds the base oil in a structured matrix and gives grease its semi-solid consistency. Lithium, lithium complex, calcium and calcium sulfonate systems are among the options used for different combinations of mechanical stability, water resistance, temperature capability and corrosion protection.
Performance additives
Additives may support oxidation resistance, rust protection, extreme-pressure performance, anti-wear behaviour, tackiness or other functions. Solid lubricants such as molybdenum disulfide may be used in selected heavily loaded or slow-moving applications, but they are not automatically suitable for every high-speed rolling bearing.
How grease works at the contact
When a bearing, pin or sliding surface moves, the grease near the contact is sheared. The structured thickener system helps retain lubricant around the component while the base oil and additives contribute to the lubricating film. A well-selected grease must reach the contact, remain sufficiently stable during service and release oil at a useful rate. Too little lubricant can allow starvation. Too much can increase churning, heat and seal pressure.
Grease is therefore not simply “thick oil.” Its flow behaviour changes with shear, temperature and time. Pumpability through a long centralized system, mechanical stability in a vibrating bearing and resistance to washout at an exposed pin are separate performance questions. A product that performs well in one condition may be a poor choice in another.
Bearing lubrication
Correct quantity, delivery interval and grease condition are as important as product selection. Replace this temporary product image with a close-up of an actual bearing application.
Why Grease Matters
A small lubrication point can control the reliability of an entire machine.
Greased components often sit deep inside high-value assets: electric motors, wheel hubs, conveyors, excavator linkages, crushers, pumps and production equipment. A missed lubrication point or unsuitable product may first appear as noise, heat or leakage, but the eventual result can be bearing damage, lost production and unplanned maintenance.
Friction control
A suitable grease helps separate moving surfaces and reduce friction under the speed, load and temperature defined by the application.
Wear protection
The lubricant film and additive system can help protect loaded contacts, especially where shock loading, vibration or slow oscillating motion is present.
Contamination defence
Grease around a seal or exposed joint can support exclusion of dust and moisture, provided purging and relubrication practices are appropriate.
Maintenance control
A documented product, quantity and interval reduce improvisation and help maintenance teams investigate temperature, consumption and failure trends.
Grease selection also influences labour and inventory. Standardizing too aggressively can force one product into incompatible duties; carrying too many nearly identical products increases the chance of cross-contamination. The practical objective is a controlled portfolio: as few greases as the operation can safely use, but enough to respect materially different application demands.
Grease Types
Understand the thickener, base oil and duty—not just the product label.
Terms such as lithium grease, high-temperature grease and multipurpose grease describe different aspects of a formulation. “Lithium” identifies a thickener family. “High temperature” describes an intended duty but does not state a universal limit. “EP” generally signals extreme-pressure performance, but the actual test data and application suitability must come from the approved technical data sheet.
| Grease family | General characteristics | Typical application direction | Selection cautions |
|---|---|---|---|
| Multipurpose grease | Designed to cover a practical range of common automotive or industrial lubrication points. | General plant bearings, chassis points and routine maintenance where the TDS and OEM requirement align. | “Multipurpose” does not mean universal. Confirm speed, temperature, water exposure and load. |
| Lithium grease | A widely used soap-thickened family with balanced general-purpose characteristics. | Bearings, chassis and equipment points within the approved product envelope. | Different lithium greases may use different base oils and additive systems and should not be treated as identical. |
| Lithium complex grease | Complex-soap technology often selected where broader temperature capability or mechanical stability is required. | Higher-duty bearings, wheel-end or industrial service when specifically approved. | Do not infer a safe operating temperature from thickener name alone; verify the TDS and bearing conditions. |
| Calcium grease | Traditional calcium systems are often associated with useful water resistance. | Selected wet or exposed applications operating within the product’s temperature and load limits. | Temperature capability varies significantly by formulation. Confirm corrosion and mechanical-stability data. |
| Calcium sulfonate complex grease | A distinct thickener family often considered for water, corrosion, load and temperature challenges. | Marine, mining, process and wet industrial duties when supported by product data and compatibility planning. | It is not automatically compatible with grease already in service; controlled changeover may be required. |
| High-temperature grease | A duty description that may involve a suitable thickener, base oil and oxidation-control system. | Ovens, fans, electric motors and other elevated-temperature components after calculating actual bearing temperature. | Dropping point is not the same as continuous operating limit. Relubrication interval may shorten as temperature rises. |
| Moly grease | Contains molybdenum disulfide or a related solid-lubricant package for selected loaded or sliding contacts. | Pins, bushes, splines and slow or oscillating heavily loaded joints where the OEM permits solids. | Do not assume suitability for every rolling bearing, electric motor or high-speed application. |
This comparison is educational, not a LubeMax product specification. Always use the current product TDS, SDS and equipment manual.
Grease Selection Guide
Seven questions lead to a safer shortlist.
Professional grease selection begins with the machine, not the catalogue. Record the lubrication point and duty before comparing brands. When information is missing, involve the equipment manufacturer, bearing supplier or a competent lubrication specialist rather than guessing from appearance or a familiar product name.
What does the OEM specify?
Capture the required NLGI grade, base-oil viscosity or range, thickener guidance, service classification and any prohibited additives. The manual remains the first reference.
What is the bearing speed?
High-speed rolling bearings and slow pins do not ask the same thing of a grease. Speed, bearing size and base-oil viscosity affect heat generation and film formation.
What loads are present?
Identify steady load, shock load, vibration and sliding or oscillating motion. Extreme-pressure or solid-lubricant features may be relevant only when supported by the application.
What temperature reaches the component?
Measure or estimate the bearing or joint temperature, not only ambient air temperature. Heat from load, speed, brakes, process equipment or insufficient cooling may dominate.
What contamination is expected?
Water, process fluid, dust, sand and cleaning chemicals affect thickener choice, sealing, relubrication and purging strategy. “Water resistant” still needs supporting test data.
How will grease be delivered?
Hand guns, cartridges, pails and centralized systems create different pumpability and handling requirements. Long lines, cold starts and small injectors can restrict a stiff product.
What grease is already installed?
Record the exact product and condition. A planned changeover requires a compatibility assessment, purge quantity and follow-up inspection; colour is not enough to identify it.
What is the maintenance objective?
Define inspection frequency, relubrication interval, quantity, access constraints and failure consequence. Critical assets may justify condition monitoring and laboratory support.
Controlled delivery
Photography placeholder: technician using a labelled grease gun, clean coupler and measured quantity.
Electric motors
Photography placeholder: industrial motor lubrication point with safe access and a documented relubrication procedure.
NLGI Consistency
NLGI grade describes consistency—not overall quality.
The NLGI consistency number is based on worked cone penetration measured under a defined test method. Lower numbers are softer or more fluid; higher numbers are firmer. NLGI 2 is common in many manually greased applications, but it is not a universal answer. Centralized systems, low-temperature service, enclosed gears and special bearing designs may require softer grades, while some sealing or block applications may require firmer products.
| NLGI grade | Worked penetration range at 25°C (0.1 mm) | Relative consistency | General application direction |
|---|---|---|---|
| 000 | 445–475 | Very fluid | Selected enclosed gear units or centralized systems where the equipment specifically requires semi-fluid grease. |
| 00 | 400–430 | Semi-fluid | Selected gear cases, hubs or centralized delivery systems subject to OEM approval. |
| 0 | 355–385 | Very soft | Cold conditions or centralized systems where pumpability and component design call for a softer grade. |
| 1 | 310–340 | Soft | Some low-temperature, centralized or higher-speed applications when specified. |
| 2 | 265–295 | Medium | Common starting point for many rolling bearings, chassis points and general manual lubrication duties. |
| 3 | 220–250 | Firm | Selected higher-temperature or sealing duties and some vertical arrangements when specified. |
| 4–6 | 205–85 across the grades | Very firm to block-like | Special applications only; not typical general-purpose relubrication greases. |
Consistency ranges are standard educational values associated with worked penetration classification. They do not describe base-oil viscosity, load-carrying performance, water resistance or a product’s full temperature capability.
Why consistency and viscosity should not be confused
Base-oil viscosity helps determine the lubricating film available between surfaces. NLGI grade indicates how strongly the grease resists deformation in the penetration test. Two NLGI 2 greases can contain different base-oil viscosities and deliver very different results in a fast electric-motor bearing versus a slow excavator pin. A responsible comparison therefore considers both properties, together with thickener, additives and application conditions.
Industries
Grease strategies for Nigerian operating realities.
Heat, dust, moisture, variable maintenance access and high asset utilization can make lubrication discipline especially valuable. The correct product is only one part of the solution; clean storage, labelled tools, accurate intervals and trained people determine whether that product reaches the right point in the right condition.
Construction
Excavators, loaders, compactors and cranes combine pins, bushes, bearings and exposed joints. Shock loading, dust and washdown demand planned relubrication and disciplined purging.
Mining
Crushers, screens, haul equipment and conveyors face load, vibration and abrasive contamination. Critical points should be mapped by asset and failure consequence.
Marine
Deck equipment, bearings and exposed mechanisms may encounter water and corrosive atmospheres. Product data, seal condition and changeover compatibility are essential.
Agriculture
Tractors, harvesters, implements and irrigation equipment combine seasonal intensity, dust, moisture and many manual grease points.
Manufacturing
Motors, pumps, fans and production lines need contamination control, measured quantities and intervals suited to speed and temperature.
Fleet
Chassis points, universal joints, fifth wheels and serviceable wheel ends must follow vehicle and component requirements rather than one-grease assumptions.
Oil and Gas
Remote sites and process equipment benefit from controlled storage, clear product identification, documented changeovers and technically reviewed applications.
Power Generation
Electric motors, fans, pumps and auxiliaries demand attention to bearing speed, temperature, regreasing method and contamination.
Mining equipment
Photography placeholder: crusher, conveyor or haul-equipment lubrication in a real African operating environment.
Manufacturing plant
Photography placeholder: maintenance technician inspecting a labelled lubrication point on operating plant equipment.
Equipment Applications
Match the grease family to the component and duty.
The table below is a conversation starter for technical review, not a product recommendation. The final selection must satisfy the equipment manual and current LubeMax technical data. Similar-looking components may operate at very different speeds, loads, temperatures and contamination levels.
| Equipment or point | Primary selection questions | Grease direction to investigate | Common risk |
|---|---|---|---|
| Electric-motor bearing | Bearing type, speed, temperature, shield/seal arrangement and relubrication quantity. | OEM-approved bearing grease with suitable base-oil viscosity, consistency and oxidation stability. | Over-greasing, mixed greases, blocked drain path or unsuitable solid additives. |
| Excavator pin and bush | Shock load, oscillation, dust, water and purge frequency. | Heavy-duty EP or solid-lubricant grease only where the equipment maker permits it. | Missed points, contaminated couplers, insufficient purging or overly long intervals. |
| Truck wheel bearing | Hub design, brake heat, service classification and OEM interval. | Wheel-bearing grease carrying the required verified classification or approval. | Using chassis grease automatically, excessive fill or ignoring sealed-for-life design. |
| Truck chassis and universal joint | Load, water exposure, interval and component requirement. | Approved chassis/service grease with the required performance classification. | Assuming every wheel-end and chassis point uses the same product. |
| Fifth wheel | Sliding contact, load, plate condition and contamination. | Grease specifically suitable for fifth-wheel sliding duty and approved solid additives. | Applying a bearing grease that does not address the sliding contact or contamination. |
| Conveyor bearing | Speed, load, ambient/process temperature, dust and washdown. | Industrial bearing grease selected from measured duty and seal condition. | Relubricating by calendar only without temperature or purge inspection. |
| Crusher or screen bearing | Vibration, shock loading, contamination, speed and automatic-system capability. | Mechanically stable heavy-duty grease verified for the delivery system and bearing. | Line blockage, grease channeling, contamination or incompatible top-up. |
| Marine deck mechanism | Water contact, corrosion, load, speed and exposure cycle. | Water-resistant, corrosion-protective grease supported by relevant test data. | Relying on tackiness or colour without checking washout and corrosion performance. |
| Open gear or rack | Gear geometry, pitch-line speed, load, application method and enclosure. | OEM-approved open-gear lubricant or specialist grease; not an automatic multipurpose application. | Using a general bearing grease where adhesion, solids or delivery behaviour differ. |
| Centralized lubrication system | Line length, injector size, pump, lowest start temperature and required flow. | System-compatible consistency and pumpability verified across the full circuit. | Choosing by bearing need alone and ignoring the system’s ability to deliver the grease. |
Excavator pins
Photography placeholder: grease purging around an excavator pin and bush after a controlled service.
Heavy truck
Photography placeholder: technician servicing a heavy-truck chassis or wheel-end component.
Wheel bearing
Photography placeholder: clean wheel-bearing service with the approved grease and controlled quantity.
Operating Temperature Guide
Temperature is a system question, not a single catalogue number.
Ambient temperature, bearing temperature and short-term peak temperature are different measurements. A machine operating in a hot Nigerian environment may have a bearing temperature driven more strongly by speed, load, alignment, ventilation and grease quantity than by the weather. Use measured component temperature where practical.
| Observed condition | Technical questions | Selection and maintenance direction |
|---|---|---|
| Cold start or long centralized lines | Will the grease flow through the pump, lines and metering devices at the lowest start temperature? | Review pumpability, apparent viscosity, consistency and base-oil behaviour; a softer grade may be required only with approval. |
| Moderate, stable bearing temperature | Are speed, load, contamination and interval controlled? | Use the OEM-approved grease and establish a baseline for temperature, consumption and purge condition. |
| Elevated continuous temperature | Is the heat normal for the process, or caused by overfill, misalignment, load or inadequate ventilation? | Correct mechanical causes first; review base-oil type, oxidation stability, thickener system and shorter relubrication intervals. |
| High peak or cycling temperature | How long are peaks, how quickly does the bearing cool, and what happens during shutdown? | Assess the full duty cycle, seal life, oil separation and relubrication strategy. Do not use dropping point as the continuous limit. |
| Wet heat or steam exposure | Are water washout, corrosion and temperature occurring together? | Require supporting test data for water and corrosion performance plus compatibility with the installed grease. |
No temperature in this educational table is a LubeMax product limit. Product-specific limits must come from approved TDS data and application review.
Grease Compatibility
Changing grease is a controlled maintenance activity.
When two greases are mixed, their thickeners, base oils and additives may interact. Some mixtures remain workable; others soften, harden, separate oil or lose mechanical stability. A broad compatibility chart is only a screening tool because formulation details matter. Laboratory testing and a monitored field changeover provide stronger evidence.
A practical changeover sequence
- Identify the exact existing and proposed products, not only their colours or thickener families.
- Confirm the equipment requirement and whether the proposed product has suitable data.
- Request supplier compatibility guidance and, for critical equipment, laboratory evaluation.
- Remove old grease where the component design and maintenance procedure allow it.
- Purge using the approved new grease without forcing contamination through sensitive components.
- Shorten the first inspection or relubrication interval and monitor temperature, noise, leakage and purge consistency.
- Update lubrication charts, labels, storage locations and grease-gun identification.
Compatibility screening matrix
| Change scenario | Risk level | Minimum action |
|---|---|---|
| Same exact product, current uncontaminated stock | Lower | Confirm batch identity, storage condition and correct application. |
| Different brand, apparently similar thickener and NLGI grade | Moderate | Obtain formulation-level compatibility guidance; do not rely on colour or label similarity. |
| Different thickener families | Higher | Plan removal or thorough purge and consider laboratory compatibility testing. |
| Unknown grease already installed | Higher | Identify through records or analysis; treat as an engineered changeover rather than routine top-up. |
| Critical high-speed, high-temperature or inaccessible bearing | Highest consequence | Use OEM and specialist review, laboratory evidence and a monitored commissioning plan. |
Storage and Handling
Keep clean grease clean.
Grease can be damaged before it reaches the machine. Open containers, dusty funnels, dirty pump tubes, mixed grease guns and water around drum lids all create avoidable risk. A simple storage standard protects product identity and makes lubrication work easier to audit.
Store under cover
Keep containers closed, dry and protected from direct weather, excessive heat and contamination. Follow the manufacturer’s shelf-life and storage guidance. Use first-in, first-out stock rotation while respecting product condition and expiry controls.
Separate and label
Give each grease a clear storage position, colour-independent label and dedicated transfer equipment. The grease gun should identify the full product name and the assets or lubrication points it serves.
Control opening
Clean the lid and surrounding area before opening a pail or drum. Use clean tools, close the package immediately after use and never return removed grease to the original container.
Protect couplers
Wipe grease fittings before connection and keep gun couplers capped or protected. A contaminated coupler can inject abrasive material directly into the component.
Check condition
Quarantine packages showing damaged seals, water entry, severe oil separation, unknown identity or suspected cross-contamination. Ask the supplier before attempting to remix or use questionable stock.
Document movement
Record receipt, batch, issue and destination for critical products. Good traceability supports complaint investigation, inventory control and consistent maintenance.
Common Lubrication Mistakes
Most grease failures are system failures, not just product failures.
A premium grease cannot compensate indefinitely for a blocked fitting, failed seal, misaligned bearing or contaminated tool. Treat lubrication as a controlled reliability process with ownership, routes, quantities, intervals and feedback.
Choosing by colour
Colour may help differentiate products inside one controlled programme, but it does not prove thickener type, NLGI grade, base-oil viscosity or performance. Record the full product name and specification.
Mixing without a plan
Topping up with the nearest available grease can change consistency or stability. Identify the installed product, assess compatibility and document the changeover.
Over-greasing
Adding grease until “more must be better” can increase churning, temperature and seal pressure. Use a calculated or OEM-defined amount and allow correct purging where designed.
Under-greasing
Long intervals, missed fittings and empty automatic lubricators can starve a contact. Routes should show every point, responsible person, product, quantity and interval.
Ignoring mechanical condition
Heat and noise may come from alignment, load, looseness or damage. Repeatedly adding grease without diagnosing the machine can hide the symptom and worsen the outcome.
Dirty application tools
Open pails, uncapped couplers and shared unlabelled guns introduce contamination and cross-mixing. Cleanliness must extend from warehouse to lubrication point.
Using one interval everywhere
Relubrication depends on bearing size, speed, temperature, environment, grease volume and duty. Calendar-only schedules should be reviewed against operating evidence.
Ignoring the delivery system
A grease that suits the bearing but will not flow through the automatic system cannot protect it. Evaluate pumps, lines, injectors and minimum starting temperature.
Featured LubeMax Greases
A controlled catalogue built from verified product data.
The supplied LubeMax product workbook confirms the Multipurpose Grease EP 2 name. Specifications, pack sizes and performance claims will be added only after the approved TDS and SDS are available. The remaining cards are future catalogue positions and are intentionally labelled Coming Soon.
LubeMax Multipurpose Grease EP 2
A verified product name in the current LubeMax range. Application, thickener, base-oil viscosity, approvals, operating limits and pack sizes remain subject to the approved technical documents.
Request product information →High Temperature Grease
Future category card. No temperature range, thickener type or performance statement has been assigned.
Lithium Grease
Future category card awaiting confirmation of product name, formulation description and technical data.
Lithium Complex Grease
Future category card awaiting an approved TDS, SDS, pack-size list and commercial release decision.
Calcium Grease
Future category card. Water resistance, temperature capability and application claims must be verified before use.
Moly Grease
Future category card. Solid-lubricant content and permitted applications will not be stated until technically confirmed.
Frequently Asked Questions
Grease questions from maintenance teams, buyers and distributors.
What is the difference between grease and lubricating oil?
Oil is a liquid lubricant that may circulate, splash or remain in a reservoir. Grease combines base oil, thickener and additives to create a semi-solid lubricant that can stay near the lubrication point. The right choice depends on component design, sealing, heat removal, speed, contamination and maintenance method.
What does NLGI 2 mean?
NLGI 2 identifies a medium consistency based on worked cone penetration. It is common in many bearing and chassis applications, but it does not define base-oil viscosity, thickener type, quality or overall suitability. Always confirm the complete requirement.
Is lithium grease suitable for every bearing?
No. Lithium describes a thickener family, not universal application approval. Bearing speed, temperature, load, base-oil viscosity, sealing, relubrication method and the exact formulation still matter.
Can I mix two greases of the same colour?
Colour does not establish compatibility. Two similarly coloured greases may use different thickeners, base oils or additives. Identify both products and obtain compatibility guidance before mixing or changing over.
Is dropping point the maximum operating temperature?
No. Dropping point is a laboratory property associated with grease structure under the test conditions. Continuous operating temperature also depends on base oil, oxidation, mechanical stability, component speed, relubrication interval and equipment design. Use the approved product data and application review.
How often should a bearing be greased?
There is no single interval for all bearings. The interval depends on bearing type and size, speed, temperature, environment, grease quantity, sealing and duty. Begin with OEM guidance and refine using condition and maintenance evidence.
Why does grease leak from a bearing?
Possible causes include overfill, damaged seals, incompatible mixing, excessive temperature, softened grease, blocked relief paths or mechanical problems. Inspect the component and grease condition rather than simply adding more product.
When should a moly grease be considered?
A grease containing molybdenum disulfide may be considered for selected slow, heavily loaded, sliding or oscillating contacts when the equipment manufacturer permits solid lubricants. It should not be assumed suitable for every rolling bearing or high-speed electric motor.
How should grease guns be managed?
Assign and label each gun by full product name, keep couplers protected, store guns cleanly and prevent unapproved refilling. Where multiple products exist, use a clear visual-control system backed by written labels and lubrication charts.
Where can I obtain the LubeMax grease TDS and SDS?
The Technical Resources page will hold controlled documents as they are approved. Until then, request the current file from the LubeMax technical or commercial team and confirm the revision date before use.
Download Centre
Controlled technical documents for confident selection.
These download positions are reserved for approved documents. Files will be uploaded through the WordPress Media Library with product name, document type, revision date and a stable link from the relevant product page.
Technical Data Sheet
Product composition description, typical characteristics, applications, limits and performance statements.
Safety Data Sheet
Current safety, handling, storage, first-aid, environmental and transport information for the exact product.
Grease Selection Guide
A practical buyer and maintenance guide connecting components, operating conditions and technical questions.
Technical education on this page is informed by standard industry concepts described by the National Lubricating Grease Institute. It is not a substitute for an equipment manual, approved product TDS or professional application review.
Technical and Commercial Support
Need help selecting grease for a bearing, fleet or heavy-equipment application?
Tell us the equipment, lubrication point, operating temperature, speed, load, contamination exposure, current grease and delivery method. The LubeMax team will help define the information needed for a responsible recommendation.