When a contractor chooses between a single-component (1K) and a two-component (2K) waterborne lacquer, they’re usually weighing convenience against durability. The 1K is simpler — no mixing, no pot life to manage. The 2K demands more discipline on site. But how much does that trade-off actually cost in real-world performance terms?
We recently had access to independent application laboratory benchmark data comparing twelve professional waterborne parquet lacquers — seven 1K formulations and five 2K formulations — tested head-to-head on identical substrates under controlled conditions. The products included some of the most widely-used names in the professional flooring market. The results are instructive, and in some areas, striking.
How the testing was done
The benchmark used standardised professional coating test methods across three substrate types:
- Opacity chart (80µm wet film, 1 week cure at 22°C/48% RH) — for chemical resistance, gloss, film appearance, and nail scratch
- Oak wood (two coats at 120µm wet each, cured 24h then 1 week at RT) — for chemical resistance, BHMR, and scuff resistance
- Glass (80µm bar coater, 1 week cure) — for König pendulum hardness and nail scratch
Every product was tested at the same film build, in the same conditions, with the same cure schedule. This matters — real-world comparisons between products often fail because application variables differ. Here, they didn’t.
Understanding the Taber abrasion test — and what it actually measures
Before getting to the numbers, it’s worth explaining the Taber abrasion test properly — because it’s widely quoted in product datasheets and just as widely misunderstood.
The Taber Test is a standardised wear testing machine used across the coatings, plastics, and flooring industries. A flat test specimen is mounted on a rotating turntable, and two weighted abrasive wheels bear down on it as it spins. After a set number of rotations — in this benchmark, 500 rotations at 1kg load — the specimen is weighed again and the difference in milligrams is recorded. Lower mg loss means less material removed, which means better resistance to that specific type of abrasion.
The CS-17 vs CS-10 wheel distinction
This is where it gets important for anyone interpreting Taber data from product datasheets — because not all Taber results are comparable, and manufacturers don’t always make the wheel choice obvious.
There are two wheels in common use for coating testing:
CS-10 (Calibrase, mild abrasion) — A relatively soft, resilient rubber-and-aluminium-oxide wheel that produces mild, fine abrading action. Taber Industries describes it as simulating “normal handling, cleaning, or polishing” conditions. In flooring terms, think of it as representing the cumulative effect of foot traffic grit, dry-mopping, and light daily abrasion — the kind of micro-scratching that builds up over months and gradually dulls a floor’s sheen. It is the wheel most commonly used by flooring lacquer manufacturers on their own commercial datasheets, and it tends to produce more flattering numbers than the alternative.
CS-17 (Calibrase, harsh abrasion) — A harder, denser wheel that produces significantly more aggressive abrasion. Taber’s own documentation describes it as producing “harsher abrasion than the CS-10 wheel.” In flooring terms, it more closely represents the kind of concentrated mechanical stress that occurs in high-traffic zones — heavy footfall on grit, furniture legs under load, or repeated rolling castor contact. The same lacquer will typically post a considerably higher mg loss figure on the CS-17 than on the CS-10, which is exactly why comparing two products tested on different wheels is meaningless.
The benchmark discussed in this post used the CS-17 wheel at 1kg load — the more demanding of the two standard options. This is significant context when reading the results below, and it’s also why these figures will look higher than the CS-10 numbers you may be used to seeing on manufacturer datasheets.
To illustrate the difference in terms of what each wheel is simulating: the CS-10 is asking “how does this lacquer hold up to everyday foot traffic and regular cleaning over time?” The CS-17 is asking “how does this lacquer hold up to the most punishing zone in the building — the entrance mat threshold, the bar servery, the corridor where every delivery trolley passes?” Both are valid questions. They just aren’t the same question.
What mg loss actually means in practice — and what it doesn’t
Here is the critical caveat that rarely makes it into product marketing: a Taber mg loss figure does not directly predict how long a lacquer will last before it needs maintenance or recoating.
The Taber test is a comparative tool, not an absolute durability predictor. It tells you how one product performs relative to another under identical controlled conditions. What it cannot tell you is the real-world timeline before a floor’s appearance deteriorates to the point where a client wants it refinished.
This matters for two reasons. First, the total film build on a real floor is considerably thicker than a test specimen, applied in multiple coats on a substrate with its own surface texture, porosity, and mechanical behaviour. Real-world wear is more complex than the contact mechanics of a lab specimen on a turntable. Second, and more importantly for wood floors: in practice, a lacquer finish is almost never worn through to bare wood before maintenance becomes necessary. What actually triggers refinishing is the loss of sheen in high-traffic zones — the progressive dulling and micro-scratching that makes a floor look tired — long before any meaningful film thickness has been lost.
A lacquer that loses 24mg over 500 CS-17 rotations at 1kg load does not mean the floor will wear through to bare wood in 500 footsteps. It means that under that specific, highly concentrated mechanical assault, it lost 24mg of material. The real-world implication is: relative to a product that loses 50mg or 70mg under the same conditions, it will take considerably longer to show visible dullness in traffic lanes, and considerably longer before a maintenance coat is needed.
With that context established, the results become genuinely useful.
Mechanical performance: where 2K pulls away
Taber abrasion resistance (CS-17 wheel, 500 rotations, 1kg load)
The 2K formulations tested posted Taber results between 11mg and 25mg. The 1K formulations ranged from 23mg to 72mg — with the worst-performing 1K losing nearly three times as much material as the best 2K.
Arboritec Avenue 2K recorded 24mg, placing it solidly in the upper tier of the 2K group. One 2K formulation in the test returned an unusually low 11mg — though its König hardness figure suggests a very different formulation balance that makes the headline number less straightforward than it appears.
Crucially, every single 1K product in the benchmark performed worse than every 2K product on Taber abrasion, without exception. The 1K range ran from 23mg at its best to 72mg at its worst. Even the strongest 1K result sat at the lower boundary of the 2K range.
In a busy restaurant corridor, a commercial retail entrance, or a hospitality environment with high-frequency wet cleaning, that gap translates directly into how frequently the floor needs maintenance attention. A product losing three times as much material under the same stress will show visible wear sooner, require maintenance coats sooner, and cost more to maintain across the floor’s lifetime.
König pendulum hardness
König hardness is measured in seconds of oscillation on glass: a pendulum is placed on the cured film surface, set swinging, and the time for it to damp to a defined amplitude is recorded. Longer oscillation time = harder film = greater resistance to indentation and deformation under point loading.
Avenue 2K recorded 99 seconds — the highest result among all five 2K formulations tested. Among the 1K group, König results ranged from 35 to 129 seconds — but this range requires careful interpretation.
Higher König hardness in the 1K group does not automatically mean a better overall finish. In coating formulation, hardness and chemical resistance are in tension with each other, and hardness must be read alongside chemical resistance data to understand what a formulation is actually doing. Several of the high-hardness 1K products in this benchmark posted very poor chemical resistance scores — suggesting brittle or insufficiently crosslinked films that are stiff but chemically vulnerable. A lacquer with high König hardness but zero resistance to 48% ethanol at 16 hours does not have good overall durability. It has a hard film. That is not the same thing.
Avenue 2K’s 99-second König result, read alongside its strong chemical resistance and low Taber loss, indicates a formulation that balances hardness, crosslink quality, and chemical integrity together — rather than optimising one metric at the expense of the others.
BHMR and scuff resistance: the real-world appearance test
This is where the benchmark becomes most directly relevant to what a floor looks like over the years of its working life — and it’s the section that deserves the most attention from anyone specifying or applying professional lacquer.
Black heel mark resistance and scuff resistance were assessed on oak wood after a full one-week cure. Each was scored on two dimensions: the black marking left on the surface (0–5, where 5 = no visible mark) and the surface damage sustained (0–5, where 5 = no visible damage). Both dimensions matter — a product might resist marking but still show mechanical damage, or leave a mark that wipes clean while causing no lasting surface change. The two scores together give a fuller picture of how a finish actually behaves under contact stress.
The testing was carried out in two separate ways:
BHMR (black heel mark resistance) — a weighted contact applied to the lacquered surface to simulate the sharp, concentrated loading of a shoe heel strike. This captures what happens under a single high-load impact: a brisk footfall, a pivot, a heel coming down hard on a threshold.
5 x Scuff — this is where the test becomes genuinely illuminating. Rather than a single impact, an abrasive pad is placed under controlled pressure and drawn across the cured lacquer surface five times in succession. The repeated traversal simulates the cumulative low-angle abrasive contact that is the real mechanism of floor finish degradation: a dragged chair leg, a shoe shuffled repeatedly across the same spot, the back-and-forth of a doorway threshold. Five passes under a standardised load is a deliberately modest simulation — real floors endure this kind of contact thousands of times. A product that shows damage after five controlled passes in a lab is telling you something important about how it will perform over years of service.
Why scuff resistance matters more than most people realise
When clients describe a floor as “looking old” or “tired,” they rarely mean it’s been scratched through to bare wood. What they’re describing is the cumulative visual effect of repeated scuffing: a slight haze in the traffic zone, a dulled path across the kitchen, faint drag marks near the dining table. None of these individually break the film — but together, they change how the floor looks in raking light. This is the mechanism the 5 x scuff test is specifically designed to capture.
Industry research into wood floor coating selection confirms that BHMR — which evaluates whether a scuff can be removed and what surface damage remains — is one of the most critical tests for flooring applications precisely because of this link to visible in-service appearance. A coating that allows dirt to embed in soft or damaged surface film creates progressive “dirt paths” in traffic lanes, a well-recognised failure mode that is the single most common reason clients report dissatisfaction with a floor finish long before any film breakthrough occurs.
The results
The 5 x scuff results across the benchmark were among the most differentiating in the entire dataset.
Avenue 2K scored 5/5 on both scuff damage dimensions on oak — both the black marking score and the surface damage score at their maximum. This is the standout result: five repeated pad traversals under controlled pressure on cured oak, and no visible marking, no visible surface damage.
Across the 1K group, scuff performance was considerably more variable and in several cases very poor. Multiple 1K products scored 0 or 1 on scuff damage — meaning visible surface degradation after just five repeated passes. One 1K product scored 0/0 across both scuff dimensions, a complete failure in both marking resistance and surface integrity. This is the lacquer equivalent of what a client sees when they notice the floor is “marking easily” within months of installation. The standout exception within the 1K group was Arboritec Classic+, which posted the strongest scuff scores of any 1K product in the test — a result that separates it meaningfully from its category peers, even if it still cannot match Avenue 2K’s clean 5/5.
Even among the 2K group, scuff performance varied. Avenue 2K’s clean 5/5 scuff damage result on oak was the best in the field — not just the best 2K result, but the best result across all twelve products tested on that dimension.
On BHMR, Avenue 2K scored 5/5 on oak damage — again the top result in the 2K group and equal to the top result across the whole test field.
What this looks like on a real floor
To translate these scores into practical terms: a product that scores 0–1 on scuff damage after five controlled pad traversals in a lab environment, on freshly applied and fully cured oak specimens, is going to show visible wear paths in a real hallway within months. The test is deliberately modest — five passes under a set load, on a pristine specimen. Real floors endure far more.
A product that scores 5/5 under those same conditions — as Avenue 2K did — is demonstrating that the cured film resists not just the first insult, but the fifth, with no accumulation of visible damage. In a real floor, this translates to the high-traffic zones continuing to look like the low-traffic zones for considerably longer. The floor ages more uniformly. The contrast between the corridor path and the undisturbed perimeter develops more slowly. Maintenance intervals extend.
For contractors, this matters commercially as well as technically. A floor that holds its appearance for four or five years before a client calls is a very different proposition to one that looks tired after eighteen months. The scuff resistance data is the clearest predictor in this benchmark of which category each product belongs to.
Chemical resistance: the other dimension of longevity
Chemical resistance was tested on both test chart (opacity card) and oak wood, using a standardised set of reagents at set contact times, scored immediately and after a recovery period (0–5 scale, 5 = no visible effect).
The reagents used were: water at 1h and 16h; ethanol 48% at 1h and 16h; ammonia 10% at 1h; acetic acid 10% at 1h; and coffee at 16h. Each was scored both immediately after removal and again after a recovery period — giving both immediate resistance and the film’s ability to recover once the stressor is removed.
Why these specific reagents?
Each represents a real chemical stressor that a domestic or commercial floor finish encounters in service.
Ethanol 48% represents the alcohol content of hand sanitisers, surface disinfectants, and cleaning sprays. Post-pandemic, high-frequency alcohol-based disinfection has become standard in commercial environments and many domestic ones. A lacquer that fails against 48% ethanol at 16 hours will show visible degradation wherever sanitiser is routinely dispensed or spilled — reception desks, kitchen counters, bar tops, bathroom thresholds.
Ammonia 10% is present in many general-purpose household cleaners, some floor care products, and at lower concentrations in pet urine. A floor finish that deteriorates under ammonia contact will show it quickly in a pet-owner household or any environment where ammoniated cleaners are routine. It’s also worth noting that some cheaper consumer-marketed “wood floor cleaners” contain ammonia compounds — a common cause of premature lacquer failure that often gets blamed on the original finish rather than the cleaning product.
Acetic acid 10% represents vinegar and vinegar-based cleaning products, which remain common in both domestic and food-service environments. Reactivity to acetic acid also gives useful information about the film’s broader sensitivity to mild organic acids — relevant in food prep areas and anywhere with acidic spillage risk.
Water at 16h simulates an extended spill or pooled water that is not cleaned up promptly. A floor finish that whitens, blisters, or softens under prolonged water contact will fail in bathrooms, kitchens, utility rooms, and anywhere that wet cleaning is routine.
Results on test chart
The gap between 1K and 2K formulations was pronounced, and for some 1K products, severe.
Several 1K products scored zero against ethanol at 16 hours — both immediately and after recovery. A score of zero means complete film failure at the test site: visible whitening, softening, or loss of adhesion. Multiple 1K formulations also posted poor to very poor results against ammonia and acetic acid.
Among the 2K formulations, results were generally strong. Avenue 2K scored 5/5 on 16-hour ethanol resistance both immediately and after recovery — a result no 1K product matched. On water at 16h, ammonia, and acetic acid, Avenue 2K consistently returned scores of 4 or 5.
Even within the 2K group, the weakest performer on chemical resistance was a reminder that two-component classification alone doesn’t guarantee uniform quality.
Results on oak
Chemical resistance on real oak is a more demanding and more practically relevant test than on opacity chart. Oak introduces variables around surface porosity, tannin chemistry, and differential absorption that are absent from a flat chart substrate. Performance on oak is closer to what a floor finisher and their client will actually experience.
The 2K formulations performed consistently well on oak across nearly all reagents. Avenue 2K and the other leading 2K products achieved maximum scores against the full ammonia exposure sequence — 2 minutes, 10 minutes, and 1 hour. Most 1K products failed at the 1-hour ammonia mark, with several scoring zero.
Avenue 2K also scored 5/5 on 16-hour water resistance after recovery, and 5/5 on acetic acid after recovery. Its weakest scores on oak were against prolonged ethanol and coffee — a pattern consistent across the entire test group regardless of 1K or 2K classification, suggesting this reflects the current general limits of waterborne lacquer chemistry rather than a specific product weakness.
Arboritec Classic+ was the best-performing 1K in the test group — meaningfully better than its 1K peers, and competitive with some 2K products on specific reagents — but against prolonged ethanol and ammonia, even Classic+ could not match the top 2K performers.
Putting the full picture together
The 1K vs 2K gap is real, systematic, and not about one test
Across every performance dimension measured — Taber abrasion, König hardness, BHMR, scuff resistance, and chemical resistance on both chart and oak — the 2K formulations outperformed the 1K group. In most areas, the gap was not marginal. In scuff resistance and chemical resistance, it was often decisive.
The underlying reason is chemistry. A 2K waterborne lacquer cures through a polyurethane crosslinking reaction between a waterborne polyol (the base component) and an isocyanate hardener (the crosslinker). When fully cured, the result is a dense, tightly crosslinked polymer network with high film integrity. A 1K system relies on oxidation, water evaporation, or coalescence alone — mechanisms that produce a less fully crosslinked film. That difference in network density is what drives the gap in both chemical resistance and scuff behaviour: a tightly crosslinked film resists solvent penetration and surface deformation at the molecular level in ways that a 1K film structurally cannot match.
Not all 2K products are equal
Among the five 2K formulations, meaningful variation existed. Avenue 2K led on mechanical and surface performance — highest König hardness in the group, best BHMR and scuff scores, consistently strong chemical resistance. One 2K formulation posted a notably low Taber loss but had lower König hardness, suggesting a softer, more compliant film — a different formulation trade-off rather than a straight improvement. The weakest 2K performer on chemical resistance was a reminder that 2K classification is a necessary but not sufficient condition for good performance.
Not all 1K products are equal either
Within the 1K group, Arboritec Classic+ consistently outperformed its peers — better BHMR, better scuff resistance, more credible chemical resistance on oak. If a project genuinely requires a 1K system for operational reasons, Classic+ is the evidence-based choice from this test group. The worst 1K performers in this benchmark scored zero on scuff damage and failed multiple chemical resistance tests outright.
When to specify 2K
The benchmark data supports clear specification guidance across project types.
Commercial and high-traffic specifications — restaurants, retail, hotels, offices, entrance areas — should default to 2K as the minimum standard. The scuff resistance data alone makes a compelling case: products that degrade visibly under five controlled pad passes in lab conditions are not suited to environments where hundreds of footfalls per day are the norm.
Residential specifications where appearance longevity matters — clients who care about how their floor looks in year three as well as year one, households with pets, high-activity families, or properties with open-plan kitchen-dining-living areas where a single floor surface takes varied traffic — will see the 2K scuff and chemical resistance advantage express itself as a meaningfully longer interval before the floor looks like it needs attention.
Any project where recoat interval matters — for property managers, landlords, or building operators maintaining multiple floors, the lifecycle cost case for 2K is straightforward. A finish that holds its appearance longer requires maintenance less frequently, and the cost differential of the original product is typically recovered many times over in reduced maintenance labour.
The argument for 1K has always been convenience: no mixing, no pot life, no waste if the job runs short. That is a legitimate operational consideration on small domestic projects with fast turnaround. But the performance data makes clear that convenience has a real cost — and in any environment where the floor’s appearance over the years is part of the brief, that cost is not trivial.
About Arboritec Avenue 2K
Avenue 2K is a waterborne two-component polyurethane lacquer formulated for professional application on wood floors. It combines the crosslinked film durability of a 2K system with a practical mix ratio and working pot life suited to professional site use.
Its performance profile across this benchmark — leading König hardness in the 2K group, the best BHMR and scuff scores across all twelve products tested, consistent top-tier chemical resistance on both test chart and oak — reflects a formulation designed for demanding end-use environments rather than one built around a single headline datasheet number.
The Avenue 2K range extends across the full professional sheen spectrum. At the ultra-matte end, Genuine 5 delivers an almost reflection-free finish that has become increasingly popular for specification work where a natural, low-sheen aesthetic is required — it is also particularly forgiving in terms of hiding minor surface variation and micro-scratching over time. At the opposite end, Genuine Naked is a full-matte 2K finish for projects where the most understated possible appearance is the brief. Between these extremes, the range covers the sheen levels that represent the majority of professional specifications.
Whichever sheen is specified, the underlying 2K chemistry and the performance profile demonstrated in this benchmark remain consistent across the range.
Explore Arboritec Avenue 2K Genuine 5 and Genuine Naked 2k
About Arboritec Classic+
For projects where a 1K system is genuinely the right operational choice — tight turnaround schedules, smaller domestic jobs where pot life management isn’t practical, or situations where a mixing error simply cannot be risked — Classic+ is the product the benchmark data points to.
It also helps explain why Classic+ outperformed every other 1K product in the test group, rather than simply asserting that it did. Classic+ is not a conventional 1K waterborne lacquer — it crosslinks upon application without a separate catalyst, building a degree of network structure into the cured film that standard 1K coalescence systems do not achieve. Combined with Arboritec’s Small Particle Technology (SPT), which integrates ceramic particles deep into the polyurethane matrix to create a denser, harder protective layer, the result is a 1K product that behaves more like a 2K than its category label suggests. That chemistry is the reason for its benchmark-leading scuff and BHMR scores within the 1K field — it isn’t luck or formulation variance, it’s a structural advantage built into how the film cures.
For projects where even more protection is needed, Arboritec Part B hardener can be added to the final coat of Classic+. This takes the product a step further still — introducing an isocyanate crosslinker that drives additional network density in the topcoat — without committing the entire job to a full 2K system with its associated pot life and waste considerations. It is particularly useful in higher-demand areas within an otherwise domestic specification: a hallway or kitchen that takes noticeably heavier traffic than the rest of the floor.
Classic+ is available in Ultra-Matte (5), Satin (20), Semi-Gloss (50), and Gloss (90) — covering the full sheen range for domestic and lighter commercial specifications.
It doesn’t close the gap to Avenue 2K entirely — no 1K system can, and the chemical resistance data in particular shows where the 2K crosslink density advantage remains decisive — but it sits in a fundamentally different category to the weakest 1K performers in this test, several of which failed outright on scuff and chemical resistance.
If 1K is the answer to the question, Classic+ is where the evidence points.
Explore Arboritec Classic+ Explore Arboritec Part B Hardener
Is 2K lacquer always better than 1K for wood floors?
In terms of raw performance — abrasion resistance, scuff resistance, and chemical resistance — yes, the independent benchmark data is consistent: 2K systems outperform 1K systems across every metric tested. However, “better” depends on context. For a small domestic bedroom with light traffic and straightforward cleaning, a high-quality 1K like Classic+ may be entirely adequate and operationally easier to apply. For anything with sustained foot traffic, frequent wet cleaning, or exposure to alcohol-based products, the performance gap makes 2K the more defensible specification.
What is the difference between the CS-17 and CS-10 Taber wheel?
Both are used in standardised abrasion testing, but they simulate different types of wear. The CS-10 is a softer wheel that replicates mild everyday abrasion — the kind of micro-scratching from foot traffic and cleaning that gradually dulls a floor’s sheen over time. The CS-17 is a harder, more aggressive wheel that simulates the concentrated mechanical stress of high-traffic zones: grit underfoot, furniture legs, heavy footfall. Most manufacturer datasheets use the CS-10, which produces more favourable numbers. The benchmark discussed in this post used the CS-17 — the more demanding and more revealing of the two.
A Taber abrasion figure of 24mg sounds like a lot of wear. Will the lacquer actually wear through?
No — and this is one of the most common misunderstandings around Taber data. The mg loss figure is a comparative measure under a deliberately aggressive, concentrated test load. In real-world use on a properly applied floor, the finish will show cosmetic wear — a gradual loss of sheen in traffic lanes — long before there is any risk of the film wearing through to bare wood. The Taber figure tells you how one product compares to another, not how many footsteps the floor will tolerate. A product posting 24mg versus one posting 72mg will hold its appearance meaningfully longer under equivalent real-world conditions.
What makes Classic+ different from other 1K lacquers?
Two things separate Classic+ from conventional 1K products. First, it crosslinks upon application without a separate catalyst — building a more developed polymer network in the cured film than standard 1K systems, which rely on coalescence or oxidation alone. Second, it incorporates ceramic particles via Arboritec’s Small Particle Technology (SPT), which creates a denser, harder protective layer without compromising film clarity. These two characteristics explain why Classic+ outperformed every other 1K product in a twelve-product independent benchmark across scuff resistance, BHMR, and chemical resistance on oak.
Can I add a hardener to Classic+ to improve performance further?
Yes. Arboritec Part B hardener can be added to the final coat of Classic+ for projects where an additional level of protection is needed — higher-traffic areas, or rooms where chemical exposure is more likely. Adding Part B introduces an isocyanate crosslinker that drives additional network density specifically in the topcoat, pushing performance closer still to a full 2K system. The rest of the job can be applied as standard 1K, so the added complexity is limited to a single coat where it matters most.
Does sheen level affect the durability of Avenue 2K?
No — the 2K polyurethane chemistry and the performance profile it delivers are consistent across the Avenue range regardless of sheen. Genuine 5 (ultra-matte) and Genuine Naked (full-matte) use the same underlying 2K crosslinked system as the mid-sheen options. Sheen level is controlled by matting agents in the formulation and does not affect abrasion resistance, scuff resistance, or chemical resistance in any meaningful way.
Why does my floor lacquer deteriorate where we use hand sanitiser?
Hand sanitisers typically contain 60–70% ethanol or isopropanol. The benchmark tested chemical resistance against 48% ethanol — already a demanding standard — and several 1K products in the test showed complete film failure at 16-hour exposure, scoring zero. In practice, a sanitiser dispenser that drips onto a lacquered floor repeatedly over months creates exactly this type of prolonged alcohol contact. 2K systems — and specifically those that perform well on the ethanol resistance test — are far more resistant to this failure mode. If sanitiser contact is a regular occurrence in a space, it is a strong argument for a 2K specification.
Is waterborne 2K lacquer suitable for commercial floors?
Yes — modern waterborne 2K polyurethane lacquers are formulated specifically for high-demand commercial environments. The performance data in this benchmark reflects testing conditions designed to simulate commercial-level stress: CS-17 Taber abrasion, extended chemical exposure, and repeated scuff cycles. Avenue 2K achieved the highest mechanical scores in the 2K test group and is suitable for restaurants, retail, hospitality, offices, and high-traffic residential applications.
