Manufacturing Facility Epoxy Flooring Toronto: Heavy-Duty, Chemical-Resistant Flooring Systems for Industrial Production Environments
Toronto Precision Epoxy Flooring installs manufacturing facility epoxy flooring systems with over 20 years of experience, delivering high-performance, seamless, and chemically resistant surfaces for production plants, assembly lines, and industrial processing environments across Toronto. These facilities require flooring engineered to withstand continuous equipment operation, point loads often exceeding 2,000–6,000 lbs, and exposure to oils, solvents, and process chemicals while maintaining surface integrity and operational safety. Systems are designed as dense, non-porous, abrasion-resistant builds that support efficient production workflows and minimize downtime in high-demand manufacturing settings.
Manufacturing environments operate under combined mechanical, thermal, and chemical stresses that exceed standard commercial conditions. Floors are subjected to constant forklift traffic (solid or pneumatic tires), steel-wheeled carts, pallet jacks, and heavy machinery, generating sustained abrasion and impact loads. In addition, exposure to cutting fluids, hydraulic oils, acids, alkalis, and thermal cycling from process equipment can accelerate coating degradation if not properly addressed. Proper flooring systems must achieve pull-off adhesion values of ≥250–350 PSI, maintain compressive strength compatibility with 3,000–5,000+ PSI concrete substrates, and resist surface wear, cracking, and chemical attack under continuous industrial use.
Epoxy and resinous systems for manufacturing facilities typically include moisture-tolerant epoxy primers, high-build 100% solids epoxy base layers, and optional epoxy mortar or slurry systems for resurfacing and structural reinforcement. In high-load zones, multi-layer builds are installed at 1/8″–1/4″ (3–6 mm+) thickness to withstand abrasion, impact, and rolling loads. Quartz or aluminum oxide broadcast systems may be incorporated for enhanced durability and slip resistance, while novolac epoxy systems are specified in areas with aggressive chemical exposure. Protective topcoats such as polyurethane or polyaspartic provide additional abrasion resistance, UV stability where required, and long-term cleanability in demanding production environments.
We provide manufacturing facility epoxy flooring services throughout Toronto and the Greater Toronto Area, including Mississauga, Brampton, Vaughan, Markham, Richmond Hill, Oakville, Burlington, Milton, Scarborough, North York, Etobicoke, Pickering, Ajax, Whitby, Oshawa, and surrounding communities. Each installation is executed with industrial-grade surface preparation (CSP 3–5 for coatings and CSP 4–6 for thicker systems), system design based on load and chemical exposure profiles, and strict quality control to ensure long-term performance in high-output manufacturing environments.
Get a Free Toronto Epoxy Quote
✔ 20+ Years of Epoxy Flooring Experience
✔ Residential, Commercial and Industrial Expertise
✔ Industrial-Grade Surface Preparation
✔ Moisture Testing & Mitigation Systems
✔ Premium Epoxy & Coating Systems
✔ Built for Local Climate Conditions
✔ Durable, Long-Lasting Element-Resistant Flooring
✔ Custom-Tailored Flooring Solutions
We’ll contact you within 24 hours to review your project and next steps.
We look forward to learning more about your project and helping you get the right flooring system in place.
Manufacturing Facility Epoxy Flooring Applications
Manufacturing facility epoxy flooring systems are engineered for environments where continuous production, heavy equipment loading, and chemical exposure are constant. Floors are subjected to forklift traffic, robotic systems, conveyor loads, and point loads often exceeding 2,000–6,000 lbs, along with exposure to oils, coolants, solvents, and process chemicals. Systems must be seamless, non-porous, and built using high-build 100% solids epoxy, epoxy mortar, or novolac systems to maintain adhesion, abrasion resistance, and long-term performance under sustained industrial operation.
Production Lines & Assembly Areas
Manufacturing lines experience continuous foot traffic, rolling carts, and mechanical vibration from equipment. Flooring systems are typically installed at 1/8″–3/16″ (3–5 mm) using 100% solids epoxy with polyurethane or polyaspartic topcoats to provide abrasion resistance, chemical resistance, and ease of maintenance without interrupting production flow.
Forklift Traffic Lanes & High-Wear Zones
Dedicated forklift aisles are exposed to concentrated rolling loads, turning forces, and tire shear stress. Systems are built to 3/16″–1/4″+ (5–6+ mm) using high-build epoxy or epoxy mortar with quartz or aluminum oxide broadcast to increase wear resistance and traction. These zones require compressive strengths aligned with 4,000–6,000 PSI concrete and pull-off adhesion ≥250–350 PSI to prevent delamination under load.
Heavy Equipment & Machinery Areas
Areas supporting CNC machines, presses, or stamping equipment must withstand static and dynamic loads, vibration, and oil exposure. Epoxy mortar or slurry systems are used to rebuild and reinforce substrates, creating dense, impact-resistant surfaces that maintain dimensional stability and resist cracking under continuous mechanical stress.
Chemical Processing & Mixing Zones
Manufacturing processes involving acids, alkalis, solvents, and reactive chemicals require advanced chemical resistance. Novolac epoxy systems are commonly specified due to their superior resistance to aggressive substances, preventing softening, staining, and coating breakdown under repeated chemical exposure.
Loading, Staging & Impact Areas
Material staging and loading zones are exposed to dropped materials, pallet handling, and repeated impact. Epoxy mortar resurfacing and reinforced high-build systems are used to restore damaged concrete and provide enhanced impact resistance, reducing surface spalling and long-term deterioration.
Maintenance Bays & Service Areas
Maintenance zones are exposed to lubricants, hydraulic fluids, and cleaning agents. Flooring systems incorporate moisture-tolerant primers and chemical-resistant topcoats to prevent staining and degradation while maintaining durability under tool use and equipment movement.
Dust-Control & Clean Manufacturing Zones
In facilities requiring controlled environments, epoxy flooring systems create sealed, non-dusting surfaces that improve air quality and product integrity. These systems reduce particulate generation from concrete abrasion and support compliance with cleanliness standards in precision manufacturing environments.
Benefits of Manufacturing Facility Epoxy Flooring
Manufacturing environments require flooring systems engineered to withstand continuous mechanical loading, chemical exposure, and thermal variation from production processes. Epoxy and resinous systems—particularly high-build 100% solids epoxy, epoxy mortar, and novolac epoxy—are designed to deliver seamless, abrasion-resistant, and structurally stable surfaces that perform under sustained equipment operation, typically supporting loads of 2,000–6,000+ lbs and exposure to oils, solvents, and process chemicals.
Manufacturing Facility Epoxy Flooring Systems
Manufacturing facilities require flooring systems engineered to withstand continuous equipment operation, dynamic and static loading, and exposure to oils, solvents, and process chemicals under 24/7 production conditions. These systems are installed as multi-layer builds incorporating mechanical surface preparation (CSP 3–5 for coatings and CSP 4–6 for heavier systems), moisture-tolerant epoxy primers, high-build 100% solids epoxy base layers, and performance topcoats. System specifications are determined by load ratings, chemical exposure levels, and production intensity to ensure long-term adhesion, structural integrity, and wear resistance.
High-Build 100% Solids Epoxy Systems for Production Floors
High-build epoxy systems are typically installed at 20–40 mils (0.5–1.0 mm) to create dense, non-porous surfaces capable of withstanding continuous foot traffic, carts, and light-to-moderate equipment movement. Installed over properly prepared CSP 3–4 profiles, these systems deliver compressive strengths in the range of 10,000–14,000 PSI, supporting general manufacturing operations while maintaining surface durability and cleanability.
Epoxy Mortar Systems for Heavy-Duty & Equipment Zones
In high-load or impact-prone areas, epoxy mortar systems—composed of 100% solids epoxy resin and graded silica aggregates—are installed at 1/8″–1/4″+ (3–6+ mm) thickness. These systems achieve compressive strengths exceeding 14,000 PSI and provide superior impact resistance, making them suitable for machinery bases, staging areas, and zones exposed to dropped materials or heavy rolling loads.
Chemical-Resistant Novolac Epoxy Systems
In environments with aggressive chemical exposure, novolac epoxy systems are specified for their enhanced resistance to acids, alkalis, solvents, and process fluids. These systems prevent softening, staining, and surface degradation under repeated exposure, maintaining long-term performance in chemical processing and mixing areas.
Abrasion-Resistant Quartz Broadcast Systems
Quartz broadcast systems incorporate silica or colored quartz aggregates fully embedded into epoxy layers to create reinforced wear surfaces. Installed at 30–60 mils, these systems significantly improve abrasion resistance in high-traffic production zones and reduce wear patterns caused by repeated equipment routing.
Moisture-Tolerant Epoxy Primer Systems (MVT Control)
Concrete slabs are evaluated for moisture vapour transmission (MVT) using ASTM F2170 (in-situ RH) or ASTM F1869 (calcium chloride). Where required, two-component moisture-tolerant epoxy primers are applied to substrates with readings up to ~75–100% RH or ~12–20 lbs/1000 sq ft/24 hrs, depending on system design. These primers penetrate and seal the substrate, mitigating osmotic pressure and preventing adhesion failure.
Polyurethane & Polyaspartic Topcoat Systems
Protective topcoats are applied at 6–12 mils to enhance abrasion resistance, chemical resistance, and long-term durability. Polyurethane provides flexibility and resistance to mechanical wear, while polyaspartic coatings offer faster cure times and rapid return-to-service, making them suitable for phased installations in active manufacturing environments.
Slip-Resistant & Safety-Focused Flooring Systems
Slip-resistant aggregates such as aluminum oxide or silica sand are incorporated into intermediate or topcoat layers to improve traction in areas exposed to spills or cleaning. Surface profiles are adjusted based on operational requirements, balancing slip resistance with cleanability and equipment efficiency.
Joint Stabilization & Seamless System Integration
Control joints are stabilized using semi-rigid polyurea or epoxy joint fillers to prevent edge spalling under wheel loads. Seamless integration across slabs, equipment bases, and transitions ensures uniform system thickness, reduces stress concentrations, and supports consistent performance across production areas.
Manufacturing Facility Epoxy Flooring Layers & Materials
Manufacturing facility epoxy flooring systems are installed as multi-layer builds engineered to withstand continuous equipment operation, chemical exposure, thermal variation, and high mechanical loads under 24/7 production. These environments require systems that maintain adhesion under dynamic and static loads, resist surface degradation from oils, solvents, and process chemicals, and deliver long-term performance across production zones, machinery areas, and traffic paths.
1. Surface Preparation & Concrete Profiling (CSP)
Concrete is mechanically prepared to remove contaminants and achieve the required surface profile for proper adhesion. (see more details in Surface Preparation section)
2. Moisture-Tolerant Primer & Bonding Layer
A two-component moisture-tolerant epoxy primer is applied at approximately 6–10 mils to penetrate and seal the concrete while establishing a strong mechanical bond. In manufacturing slabs with moisture vapour transmission, primers are selected to handle up to ~75–100% RH (ASTM F2170) or ~12–20 lbs/1000 sq ft/24 hrs (ASTM F1869), reducing the risk of osmotic blistering, delamination, and long-term adhesion loss under continuous operation.
3. Base Layer (High-Build Epoxy, Novolac Epoxy, or Epoxy Mortar System)
The base layer forms the structural foundation of the system. High-build 100% solids epoxy is typically installed at 20–40 mils to provide a dense, non-porous, and abrasion-resistant surface for general production areas. In zones exposed to aggressive chemicals, novolac epoxy systems are used for superior resistance to acids, alkalis, and solvents. In high-impact or heavy-load areas, epoxy mortar systems—composed of epoxy resin and graded silica aggregates—are installed at 1/8″–1/4″+ (3–6+ mm), delivering compressive strengths exceeding 14,000 PSI and resistance to mechanical stress and impact loading.
4. Functional Layer (Abrasion Resistance, Chemical Protection & Load Distribution)
Functional system components are integrated based on production demands. Quartz or silica broadcast systems may be installed at 30–60 mils to improve abrasion resistance in high-traffic zones. Slip-resistant aggregates such as aluminum oxide are incorporated where required to enhance traction in spill-prone areas. Additional localized reinforcement may be applied in equipment zones, turning paths, or areas with concentrated point loads to maintain surface integrity under repeated stress.
5. Protective Topcoat & System Performance Layer
Protective topcoats are applied at approximately 6–12 mils using polyurethane or polyaspartic coatings to enhance abrasion resistance, chemical resistance, and cleanability. Polyurethane provides flexibility and resistance to mechanical wear, while polyaspartic coatings offer rapid cure times and high early strength for minimized downtime. These topcoats create a sealed, durable surface that resists staining, surface erosion, and degradation under continuous manufacturing operations.
Manufacturing Facility Epoxy Flooring Surface Preparation
Manufacturing facility environments require concrete preparation processes engineered to handle continuous equipment operation, chemical exposure, and dynamic loading before any coating system is applied. Floors are routinely subjected to point loads exceeding 2,000–6,000+ lbs from machinery and material handling equipment, as well as exposure to oils, coolants, solvents, and process chemicals that can penetrate untreated concrete. Proper surface preparation ensures the substrate achieves required bond strength, maintains structural integrity under vibration and load cycling, and supports high-build epoxy, novolac, and epoxy mortar systems across production areas.
1. Mechanical Grinding & Concrete Surface Profiling (CSP)
Concrete is mechanically prepared using industrial diamond grinding or shot blasting to achieve a Concrete Surface Profile (CSP) typically in the range of 3–5 for coatings and CSP 4–6 for thicker resinous or mortar systems. This process removes laitance, curing compounds, weak surface layers, and embedded contaminants while opening the pore structure for mechanical interlock. Target substrate compressive strength is typically 3,500–5,000+ PSI, with pull-off adhesion values ≥250–350 PSI after preparation to ensure long-term performance under continuous mechanical and thermal stress.
2. Removal of Oils, Chemical Residues & Embedded Contaminants
Manufacturing slabs are frequently contaminated with hydraulic oils, cutting fluids, greases, solvents, and chemical residues that penetrate deep into the concrete matrix. These contaminants must be fully removed using mechanical grinding, industrial degreasing agents, and, where required, localized abrasive blasting or hot water cleaning. Any residual contamination acts as a bond breaker, leading to delamination, coating softening, or premature system failure under production conditions.
3. Removal of Existing Coatings & Substrate Correction
Existing coatings, sealers, adhesives, and failed epoxy systems must be completely removed to expose sound concrete. Surface defects such as spalling, cracking, joint deterioration, and surface scaling are repaired using epoxy patching compounds or epoxy mortar systems. In high-load or structurally compromised areas, resurfacing with epoxy mortar may be required to restore substrate integrity and create a uniform surface capable of supporting heavy equipment and repeated load cycles.
4. Surface Leveling, Load Distribution & Transition Preparation
Manufacturing floors require flatness and levelness tolerances aligned with production and equipment requirements, particularly in assembly lines and machinery zones. Grinding, leveling, and localized resurfacing are performed to correct uneven slabs, transition points, and load-bearing inconsistencies. Proper correction ensures uniform coating thickness, balanced load distribution, and reduced stress concentrations that can lead to premature wear or failure.
5. Moisture Evaluation, Vapour Control & Final Cleaning
Concrete slabs are evaluated for moisture vapour transmission (MVT) using ASTM F2170 (in-situ RH) or ASTM F1869 (calcium chloride). Where readings exceed acceptable thresholds, moisture-mitigating epoxy primers are specified to handle up to ~75–100% RH or ~12–20 lbs/1000 sq ft/24 hrs depending on system design. Final preparation includes thorough vacuuming and cleaning to remove dust and debris, ensuring a clean, dry, and coating-ready substrate capable of supporting high-performance manufacturing flooring systems.
Effective surface preparation in manufacturing environments is focused on achieving mechanical bond strength, eliminating chemical contamination pathways, and stabilizing the substrate for multi-layer resinous systems. When executed to specification, the flooring system maintains adhesion, resists chemical and mechanical degradation, and delivers reliable long-term performance under continuous industrial production conditions.
Why Manufacturing Facility Epoxy Flooring Systems Fail
Manufacturing facility epoxy flooring systems are designed to withstand continuous equipment operation, chemical exposure, thermal cycling, and sustained mechanical loading. However, failures occur when surface preparation, system specification, or installation methods do not account for the combined effects of dynamic loads, chemical interaction, moisture vapour transmission, and production-driven stress. In these environments, coating breakdown typically results from multiple interacting factors under continuous industrial use rather than a single point of failure.
1. Inadequate Surface Preparation & Substrate Deficiency
Failure to properly prepare the concrete substrate—particularly achieving the correct Concrete Surface Profile (CSP 3–5 for coatings and CSP 4–6 for mortar systems)—prevents adequate mechanical bonding. Manufacturing slabs may contain embedded oils, cutting fluids, or curing compounds, and often fall below recommended compressive strengths of 3,500–5,000+ PSI in worn areas. Without achieving pull-off adhesion values ≥250–350 PSI, coatings are prone to delamination under vibration, thermal expansion, and equipment loading.
2. Mechanical Wear, Impact & Production-Induced Degradation
Manufacturing floors are exposed to continuous rolling loads from forklifts, carts, and machinery, often exceeding thousands of load cycles per day. Systems lacking sufficient build thickness or abrasion resistance—such as thin-film coatings under 15–20 mils—degrade rapidly under rubber or steel wheel traffic. High-stress zones including machine bases, turning areas, and production lines experience accelerated wear due to torsional forces, impact loading, and repetitive stress, leading to surface erosion, polishing, and coating failure.
3. Moisture Vapour Transmission, Thermal Cycling & Slab Movement
Concrete slabs can transmit moisture vapour at levels exceeding ~75–100% RH (ASTM F2170) or ~12–20 lbs/1000 sq ft/24 hrs (ASTM F1869), compromising adhesion if not properly mitigated. In manufacturing environments, thermal cycling from equipment and process heat introduces expansion and contraction stresses, while joint movement and slab deflection create additional strain. Without moisture-tolerant primers or flexible system design, these conditions lead to blistering, cracking, and localized coating separation.
4. Improper System Design & Insufficient Build Thickness
Using systems not engineered for manufacturing conditions—such as standard epoxy in high-load or chemical-exposure zones—reduces performance lifespan. General production areas typically require high-build epoxy at 20–40 mils, while heavy-load or impact zones demand epoxy mortar systems at 1/8″–1/4″+ (3–6+ mm). Failure to account for equipment loads, chemical exposure, or thermal conditions results in inadequate thickness, poor stress distribution, and premature wear, cracking, or localized failure under continuous operation.
Long-term performance in manufacturing environments depends on aligning system design and installation with actual production conditions, including equipment loads, chemical exposure, thermal variation, and substrate characteristics. When concrete is properly prepared, moisture conditions are controlled, and systems are specified with appropriate materials and build thickness, epoxy flooring maintains adhesion, resists mechanical and chemical degradation, and performs reliably under continuous manufacturing operations.
Our Manufacturing Facility Epoxy Flooring Installation Process
Manufacturing facility flooring installations must be planned around continuous production cycles, equipment loading, chemical exposure, and thermal variation from machinery. Unlike standard environments, these spaces require controlled installation methods that account for substrate strength (typically 3,500–5,000+ PSI), moisture vapour transmission, joint movement, and dynamic loads from machinery and material handling. Proper execution ensures the flooring system maintains adhesion, resists mechanical and chemical degradation, and performs reliably under sustained manufacturing operations.
Step 1: Site Evaluation & System Planning
We assess the manufacturing layout, including production lines, machinery zones, chemical exposure areas, and traffic patterns from forklifts and carts. The concrete substrate is evaluated for compressive strength, surface condition, joint integrity, and moisture vapour transmission using ASTM F2170 or F1869. Equipment loads, often exceeding 2,000–6,000+ lbs, and operational stress factors are analyzed to determine system type and required build thickness, typically ranging from 20–40 mils for coatings to 1/8″–1/4″+ for heavy-duty systems. Based on these conditions, a system is specified to meet abrasion resistance, chemical resistance, and long-term durability requirements.
Step 2: Surface Preparation & Substrate Correction
Concrete is mechanically prepared using diamond grinding or shot blasting to achieve a Concrete Surface Profile (CSP 3–5 for coatings and CSP 4–6 for thicker systems). Laitance, curing compounds, oils, greases, and embedded contaminants are removed to ensure proper adhesion. Surface defects such as spalling, cracking, and joint edge deterioration are repaired using epoxy patching compounds or epoxy mortar systems. Control joints are evaluated and prepared for semi-rigid polyurea or epoxy fillers. The result is a stable, uniform substrate capable of achieving pull-off adhesion values ≥250–350 PSI.
Step 3: System Installation
A moisture-tolerant epoxy primer is applied at approximately 6–10 mils to promote adhesion and mitigate moisture-related issues. The specified system is then installed, which may include high-build 100% solids epoxy at 20–40 mils, novolac epoxy in chemical exposure zones, or epoxy mortar systems at 1/8″–1/4″+ for high-load areas. Quartz or silica broadcast layers may be incorporated at 30–60 mils to enhance abrasion resistance in traffic zones. In areas subject to heavy equipment or turning forces, additional reinforcement or increased build thickness is applied to distribute loads and prevent localized wear. Protective topcoats such as polyurethane or polyaspartic are applied at 6–12 mils to improve abrasion resistance, chemical resistance, and long-term performance.
Step 4: Curing, Inspection & Return to Operation
Curing is controlled based on system type, ambient conditions, and production requirements to ensure proper cross-linking and strength development. Once cured, the flooring system is inspected for adhesion, uniform thickness, surface integrity, and chemical resistance performance. Build thickness is verified against specification, and high-stress zones are checked for consistency. Where required, installation is phased to minimize disruption, allowing for a controlled and efficient return to full manufacturing operations.
Successful installation in manufacturing environments depends on aligning each stage of the process with actual production conditions, including equipment loads, chemical exposure, and operational demands. When preparation, system selection, and installation are executed to specification, the result is a durable, chemically resistant flooring system that maintains structural integrity and performs reliably under continuous manufacturing use.
Manufacturing Facility Epoxy Flooring FAQs
Is epoxy flooring suitable for manufacturing facilities?
Yes. Epoxy and resinous flooring systems are engineered for manufacturing environments requiring resistance to mechanical loads, chemical exposure, and continuous operation. Systems are typically specified with compressive strengths in the range of 10,000–14,000 psi and installed at 20–40 mils for coatings or 1/8″–1/4″+ for heavy-duty applications to support production equipment and material handling.
Can epoxy flooring handle oils, chemicals, and industrial contaminants?
Yes. High-performance systems—including 100% solids epoxy and novolac epoxy—are formulated to resist oils, lubricants, solvents, acids, and alkalis commonly found in manufacturing. Chemical-resistant topcoats and dense, non-porous builds prevent absorption, staining, and surface degradation under repeated exposure.
Is epoxy flooring suitable for high-traffic equipment and production areas?
Yes. Manufacturing floors are designed to withstand continuous traffic from forklifts, carts, and machinery, often exceeding thousands of load cycles per day. High-build epoxy and epoxy mortar systems, combined with quartz or silica broadcast layers, provide abrasion resistance and maintain surface integrity under rolling loads and turning forces.
Does epoxy flooring support joint and crack management in manufacturing slabs?
Yes. Control joints and cracks are stabilized using semi-rigid polyurea or epoxy joint fillers to prevent edge spalling under wheel traffic. Proper joint treatment allows the system to accommodate slab movement while maintaining a continuous, load-bearing surface.
Is epoxy flooring slippery in manufacturing environments?
Not when properly specified. Slip-resistant aggregates such as aluminum oxide or silica sand are broadcast into the system to achieve target coefficients of friction suited to the environment. Surface profiles can be adjusted based on dry production areas, wet processing zones, or safety-critical walkways.
How long does epoxy flooring last in manufacturing facilities?
Service life typically ranges from 8–15+ years depending on system type, build thickness, traffic intensity, and maintenance. High-impact zones using epoxy mortar or reinforced systems generally achieve longer performance cycles, while standard high-build coatings may require periodic topcoat renewal in high-wear areas.
Can installation be completed without disrupting manufacturing operations?
Yes. Installations can be phased by zone or scheduled during planned shutdowns. Fast-curing systems such as polyaspartic or MMA (where applicable) allow return-to-service within hours, minimizing downtime in critical production environments.
Can different areas within a manufacturing facility use different flooring systems?
Yes. Flooring is engineered by zone, including production lines, chemical processing areas, packaging zones, and maintenance areas. Variations in system type, thickness, and aggregate broadcast are specified to match localized requirements such as chemical resistance, impact loading, thermal exposure, and cleanability without overbuilding the entire facility.
Have questions about manufacturing facility epoxy flooring? Request a free on-site assessment and we’ll evaluate your production environment, load conditions, and chemical exposure to recommend a system engineered for long-term industrial performance.
Get a Free Toronto Epoxy Quote
✔ 20+ Years of Epoxy Flooring Experience
✔ Residential, Commercial and Industrial Expertise
✔ Industrial-Grade Surface Preparation
✔ Moisture Testing & Mitigation Systems
✔ Premium Epoxy & Coating Systems
✔ Built for Local Climate Conditions
✔ Durable, Long-Lasting Element-Resistant Flooring
✔ Custom-Tailored Flooring Solutions
We’ll contact you within 24 hours to review your project and next steps.
We look forward to learning more about your project and helping you get the right flooring system in place.