Winnipeg Precision Epoxy Flooring provides automotive and mechanical shop flooring throughout Winnipeg, MB, backed by more than 20 years of experience. We install heavy-duty resinous flooring for automotive repair shops, dealership service departments, fleet maintenance facilities, tyre centres and mechanical shops exposed to motor oil, transmission fluid, brake fluid, coolant, lubricants, road salt, vehicle traffic and daily repair operations.
Automotive flooring can be specified using 100% solids high-build epoxy, aggregate-filled epoxy mortar, broadcast quartz or silica and abrasion- or chemical-resistant polyurethane and polyaspartic wear coats. Service-bay floors can also require additional traction around wet work areas, reinforced repairs around deteriorated concrete and carefully detailed coatings around vehicle lifts, equipment bases, drains and other penetrations. Resin chemistry and system build are selected around actual fluid exposure, tyre traffic, impact and cleaning procedures.
We install automotive and mechanical facility flooring throughout Winnipeg and surrounding Southern Manitoba communities including Headingley, Oak Bluff, East St. Paul, West St. Paul, Oakbank, Stonewall, Selkirk, Niverville, Île-des-Chênes and Steinbach. Within Winnipeg, systems can be installed for independent repair garages, dealership service departments, fleet shops, tyre facilities and heavy-equipment repair operations, with each floor specified around the vehicles, equipment and maintenance work performed in the facility.
We'll contact you within 24 hours to discuss your project.
✔ 20+ Years of Epoxy Flooring Experience
✔ Residential • Commercial • Industrial Systems
✔ Built for Winnipeg’s Harsh Climate • Built to Last


Automotive service floors are routinely exposed to engine oil, automatic transmission fluid, gear oil, hydraulic fluids and lubricants during repairs, fluid changes and component servicing. Repeated spills can stain unprotected concrete and create slippery working surfaces around service bays. High-build epoxy and compatible chemical-resistant wear coats provide a continuous protective layer, with the resin system selected around the specific fluids, frequency of exposure and cleaning procedures used in the shop.
Brake fluid, glycol-based engine coolant, washer fluid, parts-cleaning products and other automotive chemicals have different effects on resinous flooring. Chemical resistance depends on the coating chemistry as well as concentration, temperature and how long a spill remains on the surface. Areas where fluids are drained, transferred or stored can therefore require a different flooring specification from general vehicle parking and circulation areas.
Vehicles bring chloride-containing road salt, snow, sand and slush directly into Winnipeg repair facilities throughout winter. As snowmelt collects around vehicles and service entrances, the floor is exposed to moisture and abrasive grit in addition to automotive contaminants. Degreasers and cleaning chemicals used to remove these residues create another chemical exposure, making abrasion resistance, chemical compatibility and appropriate slip-resistant texture important parts of the flooring specification.
Epoxy flooring can resist many oils, lubricants and common automotive contaminants, but no epoxy should be considered universally chemical-proof. Brake fluids, fuels, solvents, degreasers and other products can affect resin systems differently depending on their formulation, concentration, temperature and contact time. The chemicals actually used in the facility should be compared with the resistance characteristics of the proposed epoxy and protective topcoat before the flooring system is selected.

Automotive service bays receive repeated vehicle movement along the same entrances, turning points and work positions every day. Tyre rotation, braking and steering while vehicles are stationary or moving slowly can create concentrated abrasion and shear at the coating surface, while sand and road grit carried indoors during Winnipeg winters increase wear. High-build epoxy systems with abrasion-resistant polyurethane or polyaspartic wear coats can be specified around these recurring vehicle traffic patterns.
Vehicle lifts create concentrated loads at posts, baseplates and anchoring locations while technicians repeatedly work and move equipment around the lift footprint. Resinous flooring can be installed around two-post lifts, four-post lifts and recessed or surface-mounted scissor lifts, with careful detailing around anchors, edges and equipment penetrations. The coating itself does not increase the structural capacity of the concrete; slab thickness, concrete strength, reinforcement and anchoring requirements must independently satisfy the lift manufacturer's specifications.
Floor jacks, jack stands, creepers, rolling tool cabinets and other shop equipment place concentrated loads on relatively small wheels, casters or contact points. Repeated movement can increase abrasion, while dropped tools and metal components introduce localized impact around active repair bays. Higher-build epoxy, aggregate-reinforced systems and abrasion-resistant topcoats can be selected according to the intensity of mechanical work and equipment traffic.
Yes, provided the concrete slab itself is suitable for the equipment and the resinous system is specified for the surrounding service conditions. Epoxy protects the concrete surface from abrasion, automotive fluids and routine shop wear, but it should never be used to compensate for a slab that does not meet a lift or equipment manufacturer's structural requirements. Lift anchors, machinery bases and other penetrations also require proper detailing so the coating terminates cleanly around them.

Repair bays concentrate vehicle traffic, fluid changes, tool impacts and equipment movement within relatively small areas of the shop floor. Technicians repeatedly move floor jacks, creepers, rolling toolboxes and parts carts around vehicles while motor oil, lubricants and other automotive fluids can reach the surface during servicing. High-build epoxy or aggregate-reinforced systems with abrasion- and chemical-resistant wear coats can be specified around these higher-demand work zones.
Vehicle wash and detailing areas introduce frequent water, detergents, road salt and cleaning chemicals while creating substantially wetter conditions than ordinary repair bays. Silica, quartz or aluminium-oxide aggregate can provide additional traction, while the resinous flooring must be properly detailed around floor drains, trench drains and equipment penetrations. Existing drainage and floor slope should also be evaluated because a coating can protect the concrete surface but cannot correct inadequate drainage by itself.
Tyre changers, wheel balancers, alignment racks and fleet-maintenance equipment create distinct traffic and loading patterns across automotive floors. Tyre-service areas experience repeated wheel handling, jacks and equipment movement, while fleet facilities may cycle numerous vehicles through the same service positions each day. System thickness, abrasion resistance and concrete repairs can be concentrated around these operational areas according to their equipment and traffic rather than applying an unnecessarily heavy specification throughout the entire shop.
Not necessarily. A general repair bay may require strong resistance to automotive fluids, abrasion and impact, while a wash or detailing bay can require greater wet-floor traction and moisture resistance. Tyre-service and fleet areas may experience heavier equipment movement and repetitive vehicle traffic. Different compatible resinous systems, topcoats and aggregate textures can therefore be specified across the facility so each work zone receives flooring suited to its actual conditions.
Cost depends on floor area, concrete condition, existing coating removal, repairs and the resinous system required for the facility. A general service bay using high-build epoxy can have different material and preparation requirements from a wash bay requiring additional traction or a deteriorated shop floor requiring aggregate-filled repairs. Lift areas, floor drains, line markings and phased installation around operating bays can also affect project scope.
Installation time varies with square footage, concrete preparation, repairs, coating chemistry, number of layers and required cure periods. Larger facilities can sometimes be divided into individual bays or work zones so unaffected areas remain available. Vehicles, lifts and rolling equipment should only return to the coated area after the selected system has reached its specified service cure.
Potentially, but automotive concrete requires careful evaluation because oil and other fluids can penetrate the slab and interfere with adhesion. Existing coatings, weak concrete and surface contamination may require mechanical removal, while heavily oil-contaminated areas can need additional treatment before coating. A new resinous floor should only be installed once a suitable, properly prepared substrate has been established.
Pitting, spalling and localized deterioration can often be repaired with compatible resinous repair materials or epoxy mortar before the flooring system is installed. Damage around lift posts, anchors and equipment bases requires particularly careful preparation and detailing. Structural problems with the slab or lift anchoring must be addressed separately because resurfacing the concrete does not restore inadequate structural capacity.
Any flooring surface can become more hazardous when contaminated with oil, coolant, water or other automotive fluids. Silica, quartz or aluminium-oxide aggregate can be incorporated into compatible resin layers to increase surface texture and traction. Wash bays and other frequently wet areas may require a more aggressive profile than dry repair bays, while still balancing traction against the ability to clean grease and shop contaminants effectively.
Routine maintenance should remove sand, road salt, metal debris and other abrasive material before vehicle and equipment traffic grind it against the coating. Automotive fluids should be cleaned promptly using products compatible with the resinous system, with mechanical scrubbing used where appropriate. Wear is particularly important to monitor around bay entrances, lift areas, turning points and other concentrated traffic zones so the protective topcoat can be maintained before deeper flooring layers are affected.
Have more questions? Request a free on-site assessment and we’ll evaluate your shop and recommend the right epoxy flooring system for your automotive or mechanical facility.
We'll contact you within 24 hours to discuss your project.
✔ 20+ Years of Epoxy Flooring Experience
✔ Residential • Commercial • Industrial Systems
✔ Built for Winnipeg’s Harsh Climate • Built to Last