TMI Coatings provides industrial painting, specialty protective coatings, floor coatings, tank linings, and roof coating systems. These services are designed to protect steel and concrete assets from corrosion, chemical exposure, wear, and environmental damage across demanding industrial environments.
TMI Coatings works with manufacturing, energy, water and wastewater, food and beverage, mining, processing, and other industrial facilities. These environments often require high-performance coating systems, strict safety controls, and compliance with industry standards.
TMI follows strict safety protocols, detailed quality control processes, and industry-recognized standards on every project. Crews are trained to operate in hazardous and regulated environments while maintaining consistent coating quality and documentation.
Yes. Many TMI projects are completed while facilities remain partially or fully operational. Work is carefully phased, scheduled, and coordinated to minimize disruption, protect personnel, and maintain safe working conditions.
Coating systems are selected based on surface conditions, exposure risks, operating environment, and performance requirements. TMI evaluates corrosion risks, chemical exposure, temperature, moisture, and service life expectations before recommending a system.
An accurate quote typically requires surface type, square footage, operating conditions, exposure risks, access constraints, and scheduling requirements. Site visits or inspections are often used to confirm conditions and reduce unknowns.
Most estimates are delivered within a few business days once sufficient project information is gathered. Complex projects or those requiring testing or engineering review may take additional time.
Yes. Site visits are commonly performed to evaluate surface conditions, access, safety requirements, and environmental factors. This helps ensure pricing accuracy and proper system selection.
Downtime is minimized through phased work plans, off-hour scheduling, and close coordination with facility teams. Many projects are aligned with planned shutdowns or maintenance windows.
Estimates are based on known conditions at the time of evaluation. If unforeseen conditions such as hidden corrosion or substrate damage are discovered, pricing may be adjusted with clear documentation and approval.
Specialty protective coatings are engineered for extreme environments including high chemical exposure, temperature extremes, immersion, or unique substrate conditions where standard industrial coatings would fail prematurely.
Yes. Many of our specialty coating projects are completed in active facilities. We phase work, schedule around production, and implement containment and ventilation to minimize disruption and maintain safety.
TMI is certified by AMPP (Association for Materials Protection and Performance) as both a QP1 contractor (surface preparation and coating application) and QP2 contractor (hazardous paint removal), demonstrating verified quality, safety, and environmental controls.
Selection is based on substrate type, exposure conditions, operating temperature, chemical contact, service life expectations, and regulatory requirements. We evaluate your specific conditions and recommend systems with proven performance in similar environments.
Yes. Our crews are trained in confined space entry, air monitoring, fall protection, and work in classified hazardous locations. We follow OSHA, site-specific, and industry safety protocols on every project.
We work with food and beverage processors, chemical plants, water and wastewater facilities, manufacturing operations, power generation, municipalities, and any industrial facility requiring high-performance protective coating systems.
With proper installation and maintenance, epoxy and urethane floor coatings typically last 7 to 15 years or longer. Service life depends on traffic intensity, chemical exposure, maintenance practices, and coating type. Heavy forklift traffic or aggressive chemical exposure may shorten lifespan in high-wear zones.
In many cases, yes. We can phase floor coating installation by zone or section, allowing portions of your facility to remain operational. Weekend or off-shift scheduling is also available to minimize disruption. Complete shutdowns are only required when entire floor areas must be coated simultaneously.
Epoxy coatings provide excellent adhesion, abrasion resistance, and durability for general industrial use. Urethane coatings offer superior chemical resistance, thermal shock resistance, and UV stability, making them ideal for food processing, chemical exposure, and temperature-variable environments. System selection depends on your specific conditions.
Preparation typically involves diamond grinding or abrasive blasting to remove contaminants and create the proper surface profile. We also perform moisture testing, repair cracks and joints, and remove oils or existing coatings. Proper preparation is the most critical factor in coating performance.
Yes. Industrial-grade epoxy and urethane systems are specifically designed for heavy equipment loads, impact, and abrasion. Proper system selection based on your traffic patterns and load requirements ensures coatings perform under real-world conditions.
Slip resistance can be engineered into floor coatings through texture additives, broadcast aggregates, or surface treatments. We design systems to balance traction requirements with cleanability based on your specific application.
Moisture vapor transmission is a common concrete issue that causes coating failures. We test for moisture before installation and recommend moisture-mitigating primers or specialized systems when needed. Ignoring moisture leads to blistering, delamination, and premature failure.
Yes. Depending on the condition of existing coatings, we can repair localized damage, refresh worn areas, or remove and replace failed systems. Early intervention often prevents minor issues from becoming major problems requiring full floor replacement.
Cure times vary by coating type and temperature. Fast-cure systems may allow light traffic in 12-24 hours, while some systems require 3-7 days for full cure and heavy equipment. We provide specific return-to-service timelines during project planning.
Yes. We install USDA-compliant, FDA-acceptable floor coating systems that meet sanitation requirements for food processing, beverage production, and pharmaceutical manufacturing. Our systems are seamless, impermeable, and resistant to thermal shock and cleaning chemicals.
Industrial painting focuses on corrosion protection and asset preservation in harsh operating environments using engineered coating systems and strict surface preparation standards. Commercial painting is primarily aesthetic. Industrial projects involve heavier surface prep, specialized coating systems, safety protocols, and performance specifications that commercial painting does not require.
Service life depends on environment, coating system, and maintenance. Properly specified and applied industrial coating systems typically perform for 10 to 20 years or longer. Severe exposure environments (chemical plants, coastal locations, wastewater facilities) may require more frequent maintenance. Regular inspections extend coating life.
Yes. Many industrial painting projects are completed while facilities remain partially or fully operational. We phase work, schedule around production, implement containment and safety controls, and coordinate closely with facility teams to minimize disruption.
Surface preparation depends on substrate condition and coating system requirements. Options include abrasive blasting (SSPC-SP10, SP6, SP7), power tool cleaning (SSPC-SP3, SP11), or water jetting. Proper preparation removes rust, mill scale, failed coatings, and contaminants while creating the surface profile needed for coating adhesion.
Temperature, humidity, and dew point directly affect coating application and curing. Most coatings require minimum substrate temperatures (typically 40-50 degrees F), low humidity, and surfaces above dew point. We monitor conditions continuously and use environmental controls when needed to maintain proper application conditions.
Yes. We measure wet and dry film thickness throughout application using calibrated gauges. Measurements are documented and provided in project records. Third-party inspection coordination is available when specified by project requirements.
Safety measures include fall protection systems, confined space controls, respiratory protection, ventilation, containment, hazard communication, and site-specific safety plans. All personnel maintain current OSHA training and follow both regulatory requirements and site safety rules.
Yes. We can color-match existing coatings, apply custom colors per specification, and provide special finishes including high-gloss, textured, or safety colors. Color consistency is maintained through proper mixing and application procedures.
Our AMPP QP2 certification confirms our capability in hazardous coating removal. We follow EPA RRP regulations, OSHA lead standards, and state-specific requirements. Containment, worker protection, waste handling, and disposal are managed according to regulatory requirements.
We provide material certifications, surface preparation reports, environmental condition logs, coating thickness records, inspection reports, and as-applied documentation. This supports facility maintenance records, regulatory compliance, and warranty validation.
Industrial tank linings are protective coating systems applied to the interior surfaces of storage tanks and vessels. They prevent corrosion, contamination, and leaks that occur when stored materials chemically attack steel or concrete substrates. Linings extend tank life, protect product purity, and prevent environmental releases.
Service life varies by lining type, stored material, and operating conditions, but properly installed tank linings typically last 10 to 20 years or longer. Potable water tank linings often perform for 15-25 years. Aggressive chemical storage may require more frequent recoating. Regular inspections help maximize lining life.
We line steel tanks, concrete tanks, fiberglass tanks, and composite vessels. Tank types include above-ground storage tanks, underground tanks, elevated water towers, ground storage reservoirs, process vessels, digesters, clarifiers, and specialty containment structures.
Yes. We install NSF/ANSI 61-certified lining systems approved for potable water contact. These linings meet Safe Drinking Water Act requirements and are tested to ensure they do not leach contaminants into drinking water supplies.
Tank lining requires the tank to be out of service, drained, cleaned, and degassed. However, we coordinate scheduling to minimize operational impact, often working during planned outages, completing work in phases if multiple tanks are present, or scheduling around production cycles.
All tank entry work follows OSHA confined space regulations. We obtain entry permits, perform atmospheric testing, provide continuous ventilation, use supplied air when required, and maintain trained rescue standby personnel. Safety is never compromised for schedule.
Steel tanks typically require abrasive blasting to SSPC-SP10 (near-white metal) or SP6 (commercial blast) standards. Concrete tanks require mechanical preparation to remove contaminants and create proper profile. Moisture and contamination testing ensures surfaces are ready for coating adhesion.
Quality control includes surface preparation verification, environmental monitoring during application, wet and dry film thickness measurements, and holiday (electrical continuity) testing to detect pinholes. Final inspections and third-party verification are available when specified.
Yes. Existing coatings are evaluated for adhesion and compatibility. Well-bonded compatible coatings may be overcoated after proper preparation. Failed or incompatible coatings are removed through abrasive blasting before new lining systems are installed.
We provide complete project documentation including material certifications, surface preparation reports, environmental condition logs, film thickness records, inspection reports, and warranty documentation. This supports regulatory compliance and asset management records.
Industrial roof coatings are fluid-applied systems that create seamless, waterproof membranes over existing roofing. They work by sealing seams, fasteners, and leak-prone areas while providing UV protection and reflectivity. Coatings extend roof life by protecting the underlying substrate from weathering and water intrusion.
Roof coating typically costs 30-60% less than complete roof replacement. Exact costs depend on roof size, condition, coating system, and repair requirements, but restoration consistently delivers significant savings while extending roof life 10-20 years or more.
Yes. Roof coatings are specifically designed to seal leaks at seams, fasteners, penetrations, and damaged areas. Proper surface preparation and reinforcement fabric application create waterproof barriers that eliminate existing leaks and prevent future failures.
Properly installed roof coatings typically last 10 to 20 years depending on coating type, climate, and maintenance. When recoating intervals arrive, additional coats can be applied, creating a renewable system that extends roof life indefinitely with periodic maintenance.
Most commercial and industrial roof types can be coated including metal roofs, EPDM, TPO, PVC, built-up roofs, modified bitumen, and concrete decks. Substrate compatibility is confirmed during inspection to ensure proper system selection and long-term performance.
Yes. Reflective roof coatings reduce heat absorption and lower cooling loads, often resulting in 10-30% reductions in summer energy costs. White and light-colored coatings can lower roof surface temperatures by 50-80 degrees F compared to dark or aged roofing.
Yes. Roof coating installation is performed entirely from the roof exterior with minimal noise, no interior protection requirements, and no operational disruption. Facilities remain fully operational throughout the project.
Preparation includes power washing to remove debris and contaminants, repairing damaged areas, sealing fasteners and penetrations, and reinforcing seams. Proper preparation ensures coating adhesion and waterproof performance.
Routine inspections (typically annual or bi-annual) help identify minor issues before they become problems. Keeping drains clear, removing debris, and addressing small repairs promptly extends coating life. Recoating at recommended intervals maintains protection indefinitely.
Yes. Manufacturer warranties typically range from 5 to 20 years depending on coating system and application specifications. We provide both manufacturer material warranties and installation workmanship warranties on completed projects.
Industrial coating focuses on protecting steel and concrete assets in harsh operating environments, while commercial painting is primarily aesthetic. Industrial coatings are engineered for corrosion resistance, chemical exposure, abrasion, and long-term durability.
Common industrial coatings include epoxies, polyurethanes, zinc-rich primers, and specialty high-performance systems. Each type is selected based on exposure conditions, substrate, and required service life.
Industrial coatings are used on steel, concrete, aluminum, and other substrates. Typical applications include tanks, piping, structural steel, floors, roofs, and processing equipment.
Service life varies by environment, coating system, and maintenance. Properly specified and applied industrial coatings often perform for 10 to 20 years or longer.
Key factors include surface preparation quality, coating thickness, environmental exposure, chemical contact, UV exposure, and ongoing maintenance practices.
Premature failure is often caused by poor surface preparation, incorrect coating selection, improper application conditions, or lack of maintenance. Environmental exposure beyond design limits can also accelerate failure.
Surface preparation is critical to coating performance. Inadequate preparation reduces adhesion and significantly shortens coating lifespan regardless of coating quality.
Industrial coating projects commonly follow AMPP, SSPC, NACE, ASTM, and project-specific specifications. These standards define preparation, application, and inspection requirements.
Coating thickness is specified based on performance requirements and verified through wet and dry film thickness measurements during application.
Yes. With proper planning, containment, and safety controls, industrial coatings can be applied while facilities remain operational.
Temperature, humidity, and surface conditions directly affect curing and adhesion. Industrial projects are planned around environmental limits defined by coating manufacturers.
Routine inspections and timely repairs significantly extend coating life. Deferred maintenance often leads to substrate damage and higher long-term costs.
By slowing corrosion and wear, coatings protect structural integrity and reduce the need for premature repair or replacement of assets.
Localized repairs may be sufficient when damage is limited. Full recoating is typically required when coatings have reached the end of their service life or widespread failure is present.
Proper coatings reduce corrosion-related failures, contain hazardous materials, and support compliance with safety and environmental regulations.
Qualified contractors ensure coatings are applied correctly, meet specifications, and perform as intended. Experience, certifications, and safety programs directly impact project success.
Industrial painting is a proactive maintenance investment that extends asset life, reduces downtime, and lowers total lifecycle costs.
Industrial coatings form a protective barrier that isolates the substrate from moisture, oxygen, and corrosive agents. Some systems also provide sacrificial protection to slow corrosion.
Corrosion is the deterioration of metal caused by chemical or electrochemical reactions with the environment. In industrial facilities, corrosion can compromise structural integrity, safety, and operational reliability.
Common causes include moisture, oxygen, chemical exposure, temperature fluctuations, and airborne contaminants. Industrial processes often accelerate corrosion compared to normal atmospheric conditions.
Corrosion weakens steel and other metals over time, reducing load capacity and increasing the risk of failure. Left unaddressed, it can lead to equipment damage, leaks, and safety hazards.
High-humidity areas, chemical processing environments, coastal locations, wastewater facilities, and areas with temperature extremes are especially prone to corrosion.
Underfilm corrosion occurs when moisture penetrates beneath a coating and corrodes the substrate unseen. It is dangerous because damage can progress significantly before visible signs appear.
Regular inspections, coating condition assessments, and thickness measurements help identify early corrosion. Proactive detection reduces repair costs and downtime.
Proper surface preparation removes existing corrosion and contaminants that can trap moisture. It is essential for ensuring coatings bond correctly and provide long-term protection.
Different coating systems provide varying levels of corrosion protection. Selection is based on exposure type, environment severity, and desired service life.
Barrier coatings isolate the substrate from the environment, while sacrificial coatings corrode in place of the underlying metal. Both approaches are used depending on conditions and risk tolerance.
Effective corrosion protection can extend asset life by decades. In many cases, properly maintained coatings delay replacement far beyond original design expectations.
Corrosion-related failures can result in costly repairs, unplanned downtime, environmental incidents, and safety risks. The indirect costs often exceed the cost of preventive maintenance.
Preventive coatings reduce the frequency and severity of repairs. This lowers lifecycle costs and allows maintenance budgets to be planned rather than reactive.
Repairs are appropriate when damage is localized. Replacement or full recoating is necessary when coatings have reached the end of their effective service life.
Proper corrosion protection helps facilities meet safety, environmental, and operational regulations. It reduces the likelihood of leaks, structural failures, and reportable incidents.
Coatings are a foundational part of asset preservation programs. They protect capital investments and support long-term facility reliability.
Proactive planning reduces emergency repairs, extends asset life, and lowers total cost of ownership. Waiting until visible failure significantly increases risk and expense.
Preserving assets through corrosion control supports predictable operations, capital planning, and reduced operational disruption over time.
Surface preparation is the process of cleaning and conditioning a surface before coating application. It removes contaminants, corrosion, and old coatings to ensure proper adhesion and long-term performance.
Proper surface preparation is the single most important factor in coating success. Inadequate preparation leads to poor adhesion, premature failure, and reduced service life regardless of coating quality.
Abrasive blasting uses pressurized media to clean and profile surfaces. It removes rust, mill scale, and coatings while creating a surface texture that promotes coating adhesion.
Sandblasting refers specifically to using sand as the abrasive media. Abrasive blasting is a broader term that includes various media selected based on surface type, profile requirements, and environmental considerations.
Common methods include dry abrasive blasting, wet blasting, and vacuum blasting. Each method is chosen based on dust control needs, surface conditions, and project constraints.
The required blast profile depends on the coating system and manufacturer specifications. Profiles are measured in mils and verified to ensure proper coating adhesion.
Steel cleanliness is defined by standards such as SSPC and NACE. Levels range from hand tool cleaning to near-white or white metal blasting depending on performance requirements.
SSPC and NACE standards define surface cleanliness, preparation methods, and acceptance criteria. These standards ensure consistency and performance across industrial coating projects.
SSPC-SP10, also known as near-white metal blast cleaning, removes nearly all visible contaminants. It is required in severe corrosion environments or when high-performance coatings are specified.
Verification includes visual inspection, surface profile measurement, and sometimes testing for soluble salts or contaminants that can cause coating failure.
Inadequate preparation often results in early coating failure, corrosion under the coating, and costly rework. These failures can occur even when high-quality coatings are used.
When performed correctly, abrasive blasting does not damage substrates. Improper techniques or incorrect media selection can cause surface damage or excessive material removal.
Containment systems, dust collection equipment, and wet blasting methods are used to control dust and protect surrounding equipment and personnel.
Yes, when proper containment and safety controls are in place. Projects are planned to isolate blasting areas and maintain safe working conditions.
Abrasive blasting is used for heavily corroded or coated surfaces. Mechanical preparation may be sufficient for light corrosion or maintenance recoats.
Coating is typically applied as soon as possible after blasting to prevent flash rusting or contamination. Timing depends on environmental conditions and specifications.
Humidity, temperature, and airborne contaminants can affect surface cleanliness. Controls are used to maintain conditions within acceptable limits.
Proper preparation reduces rework and extends coating life, lowering long-term costs. Insufficient preparation often leads to delays and increased total project cost.
Qualified contractors understand standards, equipment, and inspection requirements. Experience reduces risk and ensures surfaces meet specification before coating.
Industrial concrete coatings protect floors from wear, chemical exposure, moisture intrusion, and impact. They also improve safety, cleanliness, and operational efficiency.
Common systems include epoxy, urethane, polyaspartic, and cementitious urethane coatings. Each system is designed for specific performance and exposure conditions.
Epoxy coatings provide excellent adhesion and abrasion resistance, while urethane coatings offer superior chemical, thermal, and moisture resistance. Selection depends on environment and use.
With proper preparation and maintenance, industrial concrete coatings can last 7 to 15 years or longer. Heavy traffic and chemical exposure may shorten service life.
Common causes include moisture vapor transmission, inadequate surface preparation, improper system selection, and excessive mechanical abuse.
Concrete is prepared through grinding or abrasive blasting to remove contaminants and create the correct surface profile. Moisture testing is often performed.
Excess moisture can cause blistering, delamination, and premature failure. Moisture-tolerant systems may be required in high-risk environments.
Yes. Properly specified systems are designed to withstand forklifts, machinery, and impact loading common in industrial facilities.
Chemical-resistant epoxies and urethanes are commonly used in processing, manufacturing, and wastewater environments.
Slip resistance is achieved through texture additives, broadcast systems, and surface design tailored to safety requirements.
Localized repairs may be sufficient for minor damage. Full recoating is recommended when coatings are worn or compromised across large areas.
Seamless coatings reduce dust, absorbency, and microbial growth, supporting sanitation and regulatory compliance in sensitive environments.
Industrial coating projects typically follow OSHA regulations, site-specific safety plans, and industry best practices for hazardous environments.
AMPP QP1 certifies contractors for surface preparation and coating application on complex industrial structures. It demonstrates verified quality and safety systems.
AMPP QP2 certifies contractors for hazardous paint removal activities. It confirms advanced controls for worker safety and environmental protection.
These certifications reduce project risk, ensure consistent quality, and are often required for high-risk or regulated projects.
Projects involving hazardous materials, critical infrastructure, or complex steel structures often require certified contractors.
Confined spaces are managed through permitting, air monitoring, ventilation, rescue planning, and trained personnel.
Safety measures include PPE, fall protection, ventilation, containment, and continuous monitoring.
Hazardous materials are managed according to regulatory requirements, including containment, labeling, transport, and disposal documentation.
Documentation may include safety plans, inspection reports, material data, and project closeout records.
Strong safety performance reduces delays, protects workers, and lowers overall project risk and cost.
Well-trained crews work more efficiently, produce higher-quality results, and reduce the likelihood of incidents or rework.
Projects are planned through site evaluation, scope definition, scheduling coordination, and risk assessment.
Surface conditions, access, weather, safety requirements, and operational constraints all affect timelines.
Downtime is minimized through phased work, off-hour scheduling, and coordination with facility teams.
Yes. Many projects are aligned with planned shutdowns to reduce operational impact.
Coordination includes scheduling alignment, safety planning, and communication with site leadership.
Inspections may include surface preparation verification, environmental monitoring, and coating thickness checks.
Quality control is maintained through documented procedures, trained inspectors, and ongoing verification.
Delays often result from unforeseen substrate conditions, weather, or access limitations.
Scope changes are documented, reviewed, and approved to maintain transparency and cost control.
Proper planning reduces rework, safety incidents, and unexpected costs.
Costs are influenced by surface condition, preparation requirements, coating system selection, access, and schedule constraints.
Variation is driven by environmental severity, compliance requirements, and coating performance expectations.
Protective coatings reduce corrosion-related repairs and extend asset life, lowering lifecycle costs.
ROI is achieved through extended asset life, reduced downtime, and avoided failure-related costs.
Deferred maintenance allows corrosion to progress, increasing repair scope and expense.
Maintenance coatings address localized issues, while full recoats restore long-term protection.
Classification depends on scope and accounting practices. Many coating projects qualify as capital improvements.
Coatings extend asset life, allowing capital expenditures to be deferred or planned more strategically.
Lifecycle planning minimizes unexpected failures and supports predictable maintenance budgets.
Manufacturing facilities often use abrasion- and chemical-resistant coatings to protect floors, equipment, and structures.
Sanitation, moisture, and chemical exposure require seamless, cleanable, and compliant coating systems.
Coatings protect concrete and steel from constant moisture and chemical exposure.
High-temperature and corrosion-resistant systems are commonly used in power plants.
Extreme abrasion, impact, and environmental exposure require heavy-duty coating systems.
Coatings help prevent leaks, corrosion, and contamination that could lead to violations.
Each industry presents unique exposure risks that drive coating selection and design.
Experienced contractors understand industry-specific risks, regulations, and operational constraints.