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Mohawk University Tom Ramsey
1
Welcome Arbor
Contract Carpets
Welcome Arbor Contract Carpets
Product Knowledge 101
Tom Ramsey
WoolNylonAcrylicsOlefin ( Polypropylene ) Polyester
Carpet Fibers
Customers buy a carpet’s “face” – the fibers. Fiber is their major decision-variable. It serves both their FASHION wants – what they see – and their FUNCTION needs – what holds up under the brunt of foot traffic. Here’s what you’ll want to learn about the different characteristic of common carpet fibers.
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Mohawk Yarn Characteristics Grid
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Natural fiber shorn from sheep. The type is determined by breed of the sheep and the climate. Most fabrics use long and short wool fiber interlocked together
Wool has some remarkable natural abilities : • To hold or release water vapor as the climate requires. It serves as a
natural humidifier. • To be easily cleaned. Wool fibers, seen through a microscope, show
overlapping scales arranged much like roof shingles. The scales keep dust and dirt near the surface of the carpet pile, where a vacuum can readily suck them out.
• To hide soil. The scales scatter light shining on it. When the scales scatter the light-rays, the eye cannot see the soil as well. The soil is less visible.
• To resist burning. Wool is naturally flame resistant. Rather than burning, it forms a char that will neither melt nor drip.
WoolLess than 1% of market
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Characteristics: Natural resilience, good resistance to abrasion, good texture retention, good resistance to soil, and good clean-ability.
Advantages: Limitations:Prestigious ExpensiveExcellent cover and bulk High staticResilient Poor stain removalVersatile AllergenicFlame resistant Inconsistent quality
Wool
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The first synthetic fiber, made into carpet in the 1940’s. It is synonymous with strength and abrasion resistance.Characteristics:Good resilience, outstanding resistance to abrasion, good texture retention and good clean-ability.Nylon 6 Vs Nylon 6,6The basic difference between these two nylons is their molecular structures. • Type 6,6 nylon is extruded from Hexamethylene Diamine and Adipic acid. The
polymer contains two strands of 6 carbon atoms (hence, “6/6”). • By contrast, Type 6 is extruded from caprolactam. It yields one polymer with
6 carbon atoms.Some minor differences exist between the two types of nylon. However, the differences between samples equally made and tested produce no consequences to consumers.
Nylonapproximately 65 % of market
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Advantages; Limitations:Good bulk and cover Costs more than polypropyleneClear colorsLong wearingResilient Dye versatility
Nylon
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Produced about 1960. A solution dyed version of the fiber is used in indoor-outdoor carpets.
Characteristics:Good resistance to abrasion, very good resistance to soil and very good clean-ability. Adequate resilience and texture retention.
Olefin ( Polypropylene )approximately 23 % of market
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Advantages: Limitations:Inexpensive ResiliencyAbrasion resistant Color rangeMoisture resistant Flammability rating
(lower than Nylon)Fade resistant Low melting point
(friction burns)Stain resistantLow static
Olefin (Polypropylene)
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Produced after 1965. And became popular because of its soft, luxurious appearance, close to that of wool and for its bright lustrous shades.
Characteristics:Good resistance to abrasion, very good resilience if twisted right, good texture retention and adequate clean-ability. Naturally stain resistance.
Advantages: Limitations:Highest melting point Less durable than
Nylon
Polyesterapproximately 11% of market
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Introduced about 10 years after nylon. Often blended with modacrylic fibers as a guard against potential flammability. However, improvements in composition have reduced flammability to no more than wool.
Characteristics:Warm, luxurious appearance like wool, good resilience, resistance to abrasion, texture retention and good clean-ability.
AcrylicsLess than 1% of market
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SmartStrand® Made with DuPont™ Sorona®
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It is not simply another polyester…
• There are many fibers that fall within the polyester family, as defined by the FTC.
• Not all fibers within a family have the same characteristics, they simply have something in common chemically.
• Think of Nylon and Kevlar – same family, very different characteristics.
Sorona® fiber has unique chemistry, molecular design and fiber structure
Sorona®’s wear performance continues to be like nylon
FTC has agreed unanimously (5 to 0) that the petition for a sub-class generic has merit
Temporary FTC Classification as “PTT 001”
Only 5 approved sub-class generics in last 50 years
FTC Petition Merited
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SmartStrand™ made with DuPont Sorona polymer
• Poly-trimethylene Terephthalate - PTT (3GT)
• Poly-ethylene Terephthalate - PET (2GT)
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Excellent Durability
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Why is it so Durable?
It’s in the DNA of the fiber!
2GT 3GT
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What Makes This Product Special…
• Engineered-In stain protection• Will never wash off or wear off• Durability as good as if not better than nylon• Inherently soft hand• Strong consumer brand names
• Karastan• Mohawk• DuPont
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Engineered-In Stain Protection
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What Makes This Product Special…
• Innovative technology that will allow 37% of the polymer to be created from corn sugar and not petroleum
• Uses 30% less energy (petroleum) than making nylon 6.
• Emits 63% less “Green House Gases” – CO2
• No chemical treatment needed to resist stains
• Recommend cleaning with clean hot water extraction
SmartStrand (Triexta)
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SmartStrand (Triexta)
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PTT is also naturally soil resistant. Therefore, wear and
maintenance will not diminish stain resistance, or soil resistance.
Carpet with Triexta (PTT) fiber has the best warranties in the
industry.
Limited Lifetime Stain
Including mustard, coffee, herbal teas, household bleach, acne
medications and other water-soluble, non-wax/oil based stains… includes
pet urine
SmartStrand (Triexta)
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What Makes This Product Special…
Innovative Technology that will allow 37% of the polymer to be created from corn sugar and not petroleum
Uses 30% less energy (petroleum) than making nylon 6
Emits 63% less “Green House Gases” – Carbon dioxide
No chemical treatment needed to resist stains
Recommend cleaning with clean hot water extraction
SmartStrand (Triexta)
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Remember: Why Engineered-In Stain Protection Is Better Chemical applied to carpet is temporary regardless of how it is applied (Stain
resistance and soil resistance)
Engineered-In is permanent
Mill applied chemistries diminish over time with required steam cleanings
SmartStrand’s Engineered-In protection doesn’t rely on chemicals and never goes away
SmartStrand (Triexta)
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This is a revolutionary new carpet fiber, different from anything on the market. The official name is SmartStrand fiber made with DuPont Sorona polymer.
SmartStrand fiber made with DuPont Sorona polymer is a Mohawk exclusive. No other carpet manufacturers have this polymer.
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Four Reasons:1. The engineered-in stain and soil protection of both
SmartStrand fibers remains with the fiber for life. No chemicals are applied to the carpet to prevent stains or make water bead up. Unlike topical treatments, the staining and soiling protection of SmartStrand will not diminish with wear or with carpet cleanings.
2. SmartStrand polymers are inherently more resilient than P.E.T. polymer and have floor performance comparable to that nylon carpets.
3. SmartStrand polymers produce inherently soft fibers without lowering the denier.
4. Mohawk’s DuPont Sorona products carry a Limited Lifetime stain warranty.
Why is SmartStrand superior?
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Smart Product…
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®
Any Questions About ?
What is fiber?
What is yarn?
Understanding Fiber / Yarn
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From Pellets to Carpet
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Staple Vs. Filament
After the fiber is crimped, continuous filament fiber is wound onto a spool to ready it for shipping. A staple yarn is cut into 6 to 8 inch lengths and bound into 600 lb. bales ready for shipping.
Which fibers are staple & which are filament?All Olefin fibers are filament. Polyester can be staple or filament. (Mostly staple) Acrylic is made into a staple fiber. Nylon can be staple or filament and is used extensively in both applications. All natural fibers are staple i.e., wool, cotton, etc.
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Why do we make staple?
This question is one of the most misunderstood in the carpet industry. Staple is not scrap yarn. Staple does not fuzz forever. Staple does not accept a dye better.
The main reason for staple fiber is for dying uniformity and a finished look that can only come from spun yarn.
How many sheep does it take to make a rug? What are the odds that each sheep’s fiber will be uniform with each other? Early continuous filament fiber did not dye uniformly and tended to streak. It was very difficult to make a continuous filament carpet in a cut pile, solid color Saxony. Cutting the filament fiber into 6 to 8 inches and then blending the fiber eliminated the dyeing differences.
The staple process lessens the cost in manufacturing, although the fiber must be re-made or spun into yarn again.
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Staple fiber, when constructed the same, performs as well as continuous filament fiber under the same conditions.
The main difference is that staple will fuzz for 3 to 6 months. The duration of the fuzzing is dependent on the quality of the customer’s vacuum and maintenance, the level of traffic, twist of the fibers, pile height and the dying method.
When customers are considering a carpet of staple yarn, explain to them that there will be a shedding of loose fiber. Give them realistic expectations. "Mam, this carpet is made of staple yarn. It will fuzz for 3 to 6 months just like any fine wool carpet. Do not be concerned if your vacuum bag fills with loose fiber. The more you vacuum the carpet with a good vacuum, the sooner the fuzzing will stop. “
The advantages of continuous filament yarn are no fuzzing, and a bulkier hand. Continuous filament yarn has a bulkier feel because of the fiber crimping method associated with bulked continuous filament.
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Fiber 101
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1st Generation Yarn was extruded as a round fiber like spaghetti. This shape would magnify any soiling, so the yarn looked dirtier than it really was. (Developed in the late 40's early 50's).
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2nd Generation Yarn was extruded into a trilobal shape - much like a three leaf clover or square shape with 4 holes running the length of the fiber. These shapes would refract the light, and therefore, hide the soil. Hence, these nylons became know as soil-hiding nylons. In fact, manufacturers of nylon claim these shaped fibers can hide a pound of dirt in one square yard of carpet. (Developed in the late 50's).
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3rd Generation Yarn evolved as the result of static electricity. In the good old days, prior to “anti-static yarn”, one could sneak up on a friend, touch them on the ear or end of their nose, and watch them jump from the shock. A carbon filament, coated in the nylon, was added to the fiber mix to help disseminate and reduce the charges of static build-up. Third generation yarn became know as “static resistant yarn.” (Developed in the late 60's).
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4th Generation Yarn was developed to enhance the soil resistant properties of nylon. This soil treatment enhances the dry soil removal from the fibers when the carpet is vacuumed or cleaned. Fourth generation yarn added the characteristic of “soil resistance.” (Developed in the middle to late 70's). 3M Scotchgard or Invista (Dupont) Teflon
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5th Generation Yarn was developed to reduce staining of the fiber by normal household liquids. The stain treatment is applied after dyeing. Dyeing nylon is a chemical reaction. There are a finite number of chemical sites or “dye sites” on each fiber. When a carpet is dyed, the darker colors use up more of these dye sites. The lighter colors leave many dye sites unused. The stain treatment acts as a clear dye to cover or fill more of these open dye sights. Open sites, if left un-dyed, will provide sites for staining to attach. This does not completely make carpet stain proof but the result is significant. (Stain treatment is perhaps the biggest innovation in the carpet industry. Stain treatment was developed in the middle 80's by Dupont. Because it was the same basic process as tanning hides in Europe Dupont could not patent the treatment).
Stainmaster (Dupont) Invista
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• Tactesse – (BCF & Staple) Invista (DuPont)• Lisse (Mohawk Soft Fiber)• Durasoft (Solutia Soft Fiber)
Fiber 101
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Why do you need to understand fiber/yarn processing?
•65% to 75% of carpet cost is in the fiber/yarn•The majority of carpet aesthetics are set in fiber/yarn construction.
An Introduction to Yarn Processing
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Fiber Extrusion
Five major fiber types:1. Nylon BCF fiber (Continuous Fiber length)2. Nylon staple fiber (Discrete fiber length)3. Polyester staple fiber (Discreet fiber length)4. Polyester continuous filament5. Polypropylene BCF (Solution Dyed; Continuous fiber
length)
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The major nylon fiber suppliers:
• Invista (Formerly Dupont) ( Major BCF supplier)• BASF (Large commodity BCF, very little staple)• Solutia (Major staple supplier)
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Other Suppliers:
• Polyester suppliers: Hoechst Celanese & Recycled plastic bottles (In-house at Mohawk)
• Polypropylene (Olefin): Done primarily internally at Mohawk
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• Staple fiber: Lower cost, wool look, more uniform. (I do not sell staple because it fuzzes.) Dumb statement!!
• BCF fiber: Higher cost, more bulk/value, less uniform
Fiber and Cost/Aesthetics
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BCF Preferred in:Low to medium weightsHigh luster end usesMulticolor end usesHigher apparent valueHigh twisted frieze products
Staple Preferred in: Medium to High weights Subdued luster end uses Solid colors Uniformity (Blending) Lower cost Lower end price sensitive products
BCF Versus Staple - Residential
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BCF Nylon yarn processing is a two-step process:1. Cable twisting (Two plies yarn with a fixed twist per
inch)2. Heat-setting (Uses heat/steam to set twist)
Yarn processing
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• Sets in twist memory• Makes the dye uptake more uniform • Makes the bulk memory more uniform • Sets texture
Purposes of Heat-setting
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Yarn size• Spun yarn• Constructed during yarn processingFiber luster• Bright fiber (residential)• Semi Bright• Semi-dull• Dull (Titanium Dioxide, white paint pigment
mixed before extrusion to create low luster)Ply twist• Primary performance/value factor• From 3.0 to 8.0 TPI
Yarn Constructing Aesthetics
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TextureCreated by a stuffer box and set in the heat-setting processCan be varied stuffer box gate pressure, twist and steam
The Pilling/Fuzzing/Shedding IssueOccurs with staple only due to discreet fiber length.Can be minimized depending on the following factors:
a. Higher twist yarns d. Good brushing/shearingb. Finer yarn e. Latex encapsulationc. Carpet construction f. Proper maintenance
(Vacuum)
Yarn construction aesthetics
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Twist Configurations
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High twist versus low twistBetter floor performanceLess apparent value in carpetBetter tip definitionLess luster with smooth surfaceCan become so high that kinks beginLess processing problems:
• Stronger cuts easier• Tighter requires more stitch rate• Harder hand• Better shear-smooth surface
Ply twist and it effects
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Air entangling is an alternative method of combining or “mingling” by a system of high-pressure, intermittent air jets. The tiny filament are intimately blended, mixing pre-colored yarns into a heather pattern. Plying two or more colors will produce a tweed or ‘barber pole’ effect.
Generally used only in loop pile carpet.
Air Entangling
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Tufting
The tufting process begins when measured lengths of yarn are fed off beams or creels to be sewn into the primary backing.
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Important factors in the performance of tufted carpet are:• Gauge• Yarn Type• Face Weight or Ounces• Density• Yarn Twist• Pile Height• Stitches per inch
Tufted carpet
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Gauge: Measures the distance between the needles across the width of the carpet. Gauge is the stated by the distance between the center of the needles.
Fiber Type: Fiber type is divided in two parts.1. Kind of fiber.2. Fiber size or thickness (Denier)
Face Weight or Ounces: Ounces per square yardDensity is controlled by the gauge of construction, the stitches per inch, the pile height and yarn ply twist.Density = 36 X #of oz’s of yarn per square yard divided by the pile height.
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Performance Factors
Yarn Ply Twist: The number of times two or more yarns have been plied or twisted in one inch. Single most important performance characteristic
Pile Height: The length of the tuft from the backing surface to the tip of the yarn tuft.
Stitches Per Inch: Stitches per inch define the number of stitches down the length of the carpet.
Performance Factors (continued)
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Dying
There are several different dye methods. The most common dye methods for residential carpet are:
Solution Dyeing – Solution dyeing is achieved when the color is added to the fiber while in the molten state before extrusion. Since the color penetrates completely through the yarn, this dye method is the most colorfast. (Carrot vs. radish). Olefin can only be solution dyed. Nylon and polyester can be solution dyed or topically dyed.
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Dying
Topical dying is the most common method of dying by applying the dye to the surface of the yarn. Topical dying is a function of two factors, time and temperature. The longer the yarn is exposed in a dye bath and the higher the temperature, the greater the dye penetration. The following dye methods are all topical dying:
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Continuous Dyeing or Range dyeing is also a topical dyeing method. Continuous dyeing is by far the fastest dyeing process. A continuous dye range can dye 50 to 100 feet of greige goods (un-dyed carpet) per minute. About 75% of all residentially dyed carpets are done on a continuous dye range. The speed has helped keep the costs of residential carpet down compared to other household products. Multi-colors, tone on tones, solid colors, and some patterned carpets are dyed on continuous dye ranges
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Dying
Stain Treatments
After dying the carpet a stain treatment is applied. Olefin is solution dyed and does not need nor will accept a stain treatment. Polyester accepts a dye so well that a stain treatment is not necessary.
Nylon, on the other hand, needs a stain treatment to protect a portion of the fiber that did not accept dye. The stain treatment is a clear dye applied immediately after the dyeing process.
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Finishing and Shearing
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1. To lock in the individual tufts (tuft bind) 2. To make the carpet more durable 3. To prevent unraveling 4. To improve resilience 5. To improve sound and thermal insulation 6. To reduce pile shedding (with spun yarns)
Finishing – Why apply backing?
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After backing, the surface pile of the carpet is sheared to remove fuzz and loose fibers. Mechanical drag and abrasion during tufting and dyeing will cause the carpet face be quite fuzzy. Shearing gives an attractive surface appearance to the finished carpet.
The shearing process is also used to produce level tip shear or random sheared carpets.
Shearing is a two-step process that first heavily brushes the carpet pile to make it erect and uniform. The carpet is then passed through a series of blades, which cut the fiber tips at precise, adjustable heights.
Shearing
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Mill Tour Video
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Tom Ramsey
Mohawk University
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From the Beginning
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• What is ceramic tile?• What is natural stone tile?• Where do these material come from?• How long have they been around?• What about today’s market for ceramic tile
and natural stone?
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Ceramic Tile Production Processes
Mining Grinding /Blending Pressing
FiringGlazing Finished Tile
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DVD Time
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Market Trends
A Growing Demand for Durable, Stylish and Easy Care Surfaces
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Easy Care & Maintenance
A Beautiful Investment
Durability
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Types of Ceramic Tile
GLAZED UNGLAZED
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Glazed Ceramic Tile
• Glaze Surface Coating made from glass derivative called “Frit”.
• A Hard, Non-Porous, impermeable surface after firing.
• Does Not Absorb Moisture
• Highly Stain-Resistant
• Scratch and Fade Resistant
• Hygienic & Easy to Clean
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Unglazed Ceramic TileQuarry and Porcelain
• No Additional Surface Applications During Firing
• Consistent Color Throughout the Body
• (Unglazed Only)
• More Dense and Durable than normal Clay Body tile
• Suitable for Interior or Exterior Applications
• Residential or Commercial
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Major Categories of Ceramic
Wall Tile Floor Tile Wall / FloorCombinations
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Wall/Floor CombinationsEnables Customers to Coordinate Tile within a Room.
Available with Coordinating Decorative Trim, Accent and Border Tiles.
Today, many ceramic tiles are manufactured for use on both floors and walls. These floor / wall combinations allow your customer to coordinate the floor and wall tile within a room to achieve a very attractive and consistent look. A variety of decorative trim, accent and border tiles are normally available with these combinations to enhance the beauty even more. We’ll talk more about these design options a little later.
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PorcelainGlazed and UnglazedConsistent Color Throughout the Body(Unglazed Only)• Unpolished,• Polished,• Semi-Polished
Dense, Impermeable Body Resists Moisture < 0.5 W/A %
High Impact Resistance-Will Withstand Years of Heavy Foot Traffic
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Porcelain Tile Body Structure
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Quarry/Paver Tile
• Unglazed, Dense Body
• Natural Slip Resistance
• Used in Commercial Kitchens and Restaurants
• Quarry Tile – Extruded
• Paver Tile - Pressed
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Ceramic Wall Tile
• Less Durable than Floor Tile
• Available in a Semi-Gloss or Matte Glazed Finish
• Suited for Vertical or Countertop Applications
Ceramic wall tile is normally less durable than tile designed specifically for flooring. Most wall tile is glazed with a high-gloss or semi-gloss surface. This glazed, glossy surface has a very low slip resistance, and is very slick when wet. Therefore, glazed wall tile is much more suited to vertical or countertop applications rather than floors.
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Wall Tile Trims
Types of Wall TrimsSurface Trims
Bullnose
Bullnose Corner
2” x 6” – S42694” x 4” – S44496” x 6”- S4669
2” x 2” – SN42694” x 4” – SN44496” x 6”- SN4669
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Selection ProcessRoom Application
Type of Tile to Fit Desired Application
Color and Shade
Texture
Size(s)
Layout Pattern
Trim and Decorative Accents
Grout Color
The above list illustrates the typical selection process recommended for assisting a customer in planning their new ceramic tile installation. However, not all tile performs the same in all applications.
Lets review the specific performance features for each major types of tile in more detail.
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Below the SurfacePhysical Properties of Tile and Stone
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Physical Properties of Ceramic Tile
The ceramic tile industry, like other industries, must conform to a set of quality standards and application ratings. These standards and related tests are established by organizations such as the:• American National
Standards Institute (ANSI)
• International Organization for Standardization (ISO)
• American Society for Testing & Materials (ASTM)
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What About the Performance Ratings ofCeramic Tile?
Scratch ResistanceAbrasion ResistanceBreaking StrengthChemical ResistanceMoisture AbsorptionSlip Resistance
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Scratch Resistance
Tile rated 4 -6 is suitable for Residential Applications
Tile rated 7 or higher is recommended for commercial applications.
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1. Talc Magnesium Silicate Hydroxide2. Gypsum Hydrated Calcium Sulfate3. Calcite Calcium Carbonate4. Fluorite Calcium Fluoride5. Apatite Calcium Phosphate6. Microcline Potassium Aluminum Silicate7. Quartz Silicon Dioxide8. Topaz Aluminum Silicate Fluoride Hydroxide.9. Corundum Aluminum Oxide10. Diamond Carbon
Moh’s Scale
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10 Diamond synthetic diamond 9 Corundum ruby8 Topaz sandpaper7 Quartz steel knife6 Microcline penknife blade5 Apatite glass4 Fluorite iron nail3 Calcite bronze coin2 Gypsum fingernail1 Talc baby powder
Moh’s Scale
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Durability
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Abrasive Hardness Testing
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Breaking Strength of Ceramic Tile
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What about Moisture Factors?
48 Hour Soak Test
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More on Moisture Factors…
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Chemical Resistance
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What about Slip Resistance?
ASTM Test Determines the Coefficient of Friction (COF) Numerical Index Rating
The Higher the COF Index Rating-The Better the Slip Resistance
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More about Slip Resistance . . .Americans with Disabilities Act (ADA) Standard:
COF of 0.6 or Higher
0.8 for Access Ramps to Commercial Buildings
Unglazed Tiles are more Slip Resistant than Glazed Tiles
Abrasive Additives increase COF and Slip Resistance
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Ceramic Tile Identification Labels
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Literature – Sales Sheets
Size/color selling part information gridUsage iconsTechnical Information
Wear Rating (Abrasion Resistance - PEI)
Scratch Hardness (MOHs Rating)
Trim pieces available
Care and maintenance information
Tile thickness information
Grout joint recommendation
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Loose Tile Corner Labels
Color-Keyed Category Identification103
Shade Variations in Ceramic Tile and Natural Stones
Low - Consistent color within each tile and from tile to tile.
Medium – Color variation within each tile
High – Some variation from tile to tile, and within each tile.
Random – Considerable variation from tile to tile.
Low Medium High Random
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Shade
G radePlantCaliberM fg. DateInspector
Carton UPC
Color Description
Internal BarCode
Shape Description
Series Description
Carton UCC
Sales Q ty, UO M ,Pound/Carton,Pieces/Carton
Color Shape
Dal-Tile Standard Carton Label
Hum an Readable(See Detail Below)
% 19990280597855550120117500011BarCode Id Char.M fg DateIref = 059785Shade = 5550CaliberShiftL inePlant
Decode of Hum an Readable= %= 1999028
= 1= 2= 01= 175
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Acceptable Flooring Substrates
• Concrete Slabs
• Plywood
• CBU
• Existing Ceramic Tile
• Existing Vinyl Flooring
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Unsuitable Wood Substrates
DO NOT Install Ceramic Tile or Natural Stone Directly Over:Hardwood FlooringParticle BoardMasoniteChipboardLuanGypsum Floor Patching
Oriented Strand Board (OSB)
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Installations on Drywall Substrates
Use a Polymer-Modified Thin-Set or an Organic Adhesive
Applied Directly to Drywall Surface- Painted or Textured Surfaces (sanded smooth)
NEVER Install Over:
• Wallpaper
• Fabric
• Any Other Wall Covering
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Hardwood
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What makes Hardwood an Attractive Flooring Option?
4. Flexibility
5. Color
6. Beauty
1. Natural Warmth
2.Environmentally Friendly
3. Infinite Variety
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What makes hardwood an attractive flooring option?
Hardwood Flooring adds value to the home!
7.Value
• Oak continues to lead market with 60% share of market Top volume widths:
o 2 ¼” (62%) in solid; 3” (60%) in engineered.
• Growing trend in Domestic exotics Maple, Hickory, Cherry, Walnut, others taking share
• Tropical Exotics still selling losing some share to domestic species oak and exotics
• Wider Width Trend Increasing shift to wider products – driven by retail Maple: 50% narrow/50% wider Other exotics heavier to wide width
• “Glueless” locking systems - Faster, cheaper installations• Growth of high performance finishes
Market Trends
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How long ago was wood used as a flooring choice?• 4,200 years ago *10,000 years ago• 1,600 years ago *1,000 years ago
Survey Said: 1,600 years ago
How old are some of the oldest wood floors that are still in use today?
• 200 years old *300 years old• 600 years old *800 years old
Survey Said: 800 years old
Family Feud
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In the 18th century, how were wood floors finished?• Unfinished *Painted with designs• Waxed *Stained and varnished
Survey Said: Painted with designs
What floor became a rage in the 1920’s?• Parquet *Dark, formal floors• Herringbone *Lighter-colored woods
Survey Said: Lighter-colored woods
Family Feud
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What was a common choice for flooring from 1945 to 1965 for new home construction?
• Carpet *solid wood • Linoleum *Tile
Survey Said: Solid woodIn the 1950’s what caused carpet to be the flooring of
choice?• FHA approved carpet *The price of new carpet• Easier installation *Carpet performed better• Survey Said: FHA approved carpet*The price of new carpet
*Easier installation
Family Feud
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•Most popular is “Red Oak Natural”•Darker colors for Formal or Traditional•Lighter colors for Country, Casual, Contemporary•Domestic Species•Imported and Exotic Species
Wood Floors and Fashion
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Hardwood SoftwoodSolid EngineeredUnfinished Pre-finishedPlank StripNail/Staple Glue/FloatSquare Edge Rounded Edge
Wood Flooring in Two’s
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•Hardwood Trees, “Deciduous”
•Softwood Trees, “Conifers”
Types of Trees
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Hardwoods
•Flowering Plants / Seeds produced in Fruits
• Broad Leaves with Netlike Veins
• Many are deciduous (Oaks, Elms, Maples)
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Softwoods
•Needle and/or Cone bearing trees
•Conifers are Pine, Cedar, and Fur
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Cells & Rays
•Most of the cells in wood are arranged parallel to the long axis of the tree. They are hollow, water conducting and support cells.
•Ray cells are aggregations of cells extending radially from the bark to the inside of the tree.
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•Bark•Cambium•Sapwood•Heartwood•Core - Pith
Tree Parts
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Janka Hardness RatingMeasures the force in PSI required to embed a .444-inch steel
ball to half its diameter into wood.
Measuring the Hardness of Wood
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Pecan 1820Hickory 1820Maple 1450Oak (white)1360Ash 1320Beech 1300Oak (red) 1290
Yellow Birch 1260Yellow Pine 870-690Black Walnut 1010Black Cherry 950Heart Pine 1225Fir 660
Wood Flooring Hardness Scale(Dent Resistance in PSI)
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Heartwood
•The central core of wood in mature stems that no longer conducts sap and has no living cells.
•In most species, infiltration of minerals imparts a noticeably darker color to this wood.
•Because of minerals present in the cell walls heartwood may also be more stable, less susceptible to decay and more dimensionally stable.
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Sapwood
Sapwood is the softer, younger, outer portion of the tree that lies between the cambium (formative layer just under the bark) and the heartwood.
It is more permeable, less durable, and usually lighter in color than the heartwood.
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Sources of Wood VariationGenetics – trees are living individuals.
Environment – did it grow up on a north or south facing slope, a wet valley or a dry mountain top?
Position within the tree – Heartwood or Sapwood.
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•Plain sawn expands more in width•Quarter sawn more in height•Relative humidity range of 30-50%•Temperature of 60-80 degrees•Dimensional change varies by species
Wood Floors and Moisture
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These numbers indicate the relative tangential (sideways) shrinking or swelling within normal moisture content limits of 6-14 percent.
To find the amount of shrinking or swelling for a particular species, multiply the change in moisture content by the “dimensional change coefficient.”
Then, multiply that answer (product) by the board’s width.
Dimensional Change Co-efficient
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Example: A red oak (change coefficient = .00369) board 5 inches wide changes its moisture content by 3 percentage points -- from 6 to 9%.
3 x .00369 = .01107 x 5 inches = .055 (1/16) of inch per board in width
In reality, the boards will not expand quite that much, because pressure from the adjoining boards will restrain some lateral movement.
Wood can hold as much as 25 - 30% moisture content. That’s the fiber’s saturation point.
Dimensional Change Co-efficient
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Wood flooring performs best within a relative humidity range of 30 to 50% and a temperature range of 60 to 80 degrees F. Fortunately, that’s about the same comfort range most humans enjoy. How much would a roomful of boards expand or shrink across their width? The amount may surprise you. Example: 5-inch red oak planks are laid 10 feet across a room. At 70 (F.) and 40% relative humidity, each plank has 7.7% moisture and measures 5 inches. If humidity falls from 40% to 20%, the moisture falls to 4.5%. Each board shrinks by .059 inches. Across the room, the floor shrinks 1.4 inches. If humidity rises to 65%, the moisture content rises to 12%. Each board expands by .075 inches. Together, the floor widens by 1.9 inches.
How much will wood expand across a normal room?
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Can consumers avoid expansion and shrinkage problems?No. They can’t avoid swelling and shrinking. However, they can minimize it and the consequences of buckling boards, by letting the wood sit in their house for several days before installing them. It’s called “acclimating” the wood to the environment.
To help your customers understand the power that expanding wood can exert, you may recite these examples
Wood Expansion
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Dimensional Changes
Solid
Engineered
Up to 12% change
Solid flat sawn wood – majority of expansion is in the width
Engineered wood expands the same percentage in each direction – but less overall
Less than 1% change
Less than 1% Change
Less than 1% change
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Wood Flooring Types
EngineeredEngineered
SolidSolid
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Solid Hardwood Flooring
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•Unfinished and pre-finished•Usually ¾” thick•About 1/8” wear layer•Solid wood is cut from tree with saw
Solid Wood Flooring
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Solid Wood Flooring
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Plain Sawn - Tangential Most common, least expensive, softest grain construction, grain mostly goes across the board.
Quarter Sawn - Radial Costs more, grain goes through the board, harder grain construction.
Cuts for Solid Hard Wood
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Radial Vs. Tangential
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Engineered Flooring
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Three PliesFive Plies
Cross Grain Construction
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Glued Under Heat & Pressure
COR
E
FACE
BOTTOM
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Multi-Ply Cross-Grain Construction3 ply or 5 ply construction More stable than solid wood floors Guaranteed to maintain its shape
Engineered Wood Product Construction
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Top Veneer Approximately ¼ inch thick (sliced) Northern or Southern hardwood Most popular Species for Engineered are Oak and
MapleOther Veneers North American hardwoods Softwoods
Engineered Wood Product
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Sliced
Rotary
Sawn Veneers
Top Veneer Cutting Methods
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Solid Construction• On or above grade• Higher raw material cost; lower mfg.
cost (compared to engineered flooring)
• Traditional look• Refinish opportunities• ¾” requires a wood/wood composite
sub-floor for nailing• Available pre-finished or unfinished• NO RADIANT HEAT APPLICATIONS
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Engineered Construction
• Below, on or above grade• Cross ply construction increases
dimensional stability• Lower raw material cost; higher mfg.
cost (compared to solid flooring)• Install over a variety of sub-floors• Usually pre-finished but available
unfinished• BEST FOR RADIANT HEAT (specific
products)
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Reasons for Engineered Sales Growth
Installation flexibility Glue directly to concrete Install almost anywhere in the
home (basements) Advent of stapling technologyoSpeed of installationoReduction of installed costs
(staples vs. adhesive)oAbility to install over less
costly sub-floors (OSB)
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•Dimensionally Stable•Can be installed over most sub floors•Suitable for all grade levels•Can go over Radiant Heat•Minimum acclimation•Little or no expansion joints required
When Do I Use Engineered?
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•On or above grade only•Requires expansion space•72 hours acclimation time•Staple and Nail Only
When Do I Use Solid?
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Importance of Species
75% VISUAL75% VISUAL
25% PERFORMANCE
HardnessExpansion (dimensional
stability) & contractionOverall Stability
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•Strip – less than 3 “•Plank – 3” or more•Parquet – small pieces grouped together
Styles of Wood
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Edge Treatments
Square Edge Eased or Beveled Edge & Kissed
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Square edge vs. beveled Square ends and edges tend to be more expensive than beveled – requires
tighter manufacturing controls Heavy beveled costs less in manufacturing Beveled products help hide sub floor irregularities
Edge/End Treatment
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•Unfinished Wood Flooring•Pre-finished Wood FlooringUrethaneAluminum OxideUV Cured
Wood Floors Product Finishing
With acrylic impregnation
Standard,non-impregnation
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• Most have some minerals suspended in U.V. cured urethane (often aluminum oxide)
• 10 x higher abrasion resistance than other site-finished urethanes
• Damage requires a board replacement• Less maintenance than wax finishes• Stain/chemical resistance
Factory Finish Urethane
Urethane settles within the aluminum oxide in the finish, so you are actually walking on the top of the aluminum oxide crystals, which protect the floor’s finish.
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•Quality & consistency of finish•Consistent color•Consistent gloss•UV Cured
•Less dust at install
•More coats applied
•Solid – 6 Coats
•Engineered – 9 Coats
Benefits of Pre-finished Floors
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• Quality – not as dependent on installer and job site conditions• Time is Money – factory finished installation time is about 1/2 of site-finish• Performance - extended warranties and guarantees on wear layer and finish• Aesthetics – superior finish consistency and gloss level
Summary: Factory vs. Site finished
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LAMINATE FLOORING
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Laminate Plank ConstructionTransparent Wear Layer, Melamine and aluminum oxide Impregnated; Easy to clean – never needs wax.
Décor paper; design print impregnated with melamine resins.
HDF Core; (high density fiberboard), impregnated with phenolic resins.
Under layer: Melamine impregnated; moisture resistant
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Melamine Backer- Moisture resistant- Balances the panel
Mohawk Laminate Flooring Components
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HDF (High Density Fiberboard) Core
- On all Mohawk products• Glued ‘watertight’• Consists of wood fibers and high
quality synthetic resins• Low flammability
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Mohawk Laminate Flooring Components
Decór layer - Colorfast- In-house development- Use of different design patterns per
product type- Use of different color prints per
product type
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Mohawk Laminate Flooring Components
Overlay with Aluminum Oxide• Very stain, wear, impact and
scratch resistant• Hard to inflame (cigarette burn
resistant• Resists household chemicals• 100% transparent• Aluminum oxide – 2nd in hardness
to diamonds
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Mohawk Laminate Flooring Components
When were laminate floors introduced?• 1950’s *1960’s• 1970’s *1980’s
Survey Said: 1970’s
Where was laminate first used?• USA *China• Europe *Russia
Survey Said: Europe
Family Feud
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What company brought laminate floors to the USA?• Unilin *Witex• Pergo *Armstrong
Survey Said: PergoWhat made laminate floors’ growth explosive?• Price *Durability • Ease of Installation *Maintenance
Survey Said: All of the above
Family Feud
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When did laminate become popular in the USA?• Early 1990’s *Late 1990’s • 1980s *Early 2000
Survey Said: Late 1990’sWhat company introduced the glueless
installation?• Pergo *Unilin• Witex *Armstrong• Survey Said: Unilin
Family Feud
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U.S. Laminate Evolution
1950’s
High PressureLaminate(HPL)developed for furniture applications.
1980’s
Laminate flooringdeveloped by Perstorp as newapplication for HPLlaminate
1989
Pergo becomesfirst significant dedicated laminate flooring company
Early ’90’s
European wood panel mfrs enter laminate business
Mid ’90’s
Laminate flooring intro’d in North America by Pergo. Other European & US mfrs follow.
2000’s
Boom of Uniclic Installation System
Unilin’s DPL technology successfully challenges HPL
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The Angling Method The Sliding or Snapping Method
Unilin’s Uniclic®
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Laminate Basic Characteristics
No Wear
No Stain
No Fading; No sun Bleaching from UV
light
Cigarette Burn Resistant
Static Loads in Excess of One Ton
G-44The Product
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•Will not wear out.
•Never needs refinishing.
•Will not stain.
•Will not fade.
•It is easy to maintain
Laminate is growing because it:
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The one-step ProcessI. Flooring production
G-48The Product
The One Step process; DPL Product Flooring laminate a. Overlay b. Decor paper c. Core paper
Laminate flooring 1. Flooring laminate 2. Glue 3. Core 4. Glue 5. Backing material
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DPL: Direct Pressure Laminate (Advanced, 1-step process)
Layers are assembled all at once & pressed together in one single step under high temperature and pressureCoreboard is HDF (High Density Fiberboard) Benefits:
Less raw materials- Perfect melamine adhesion on support- Better balance and dimensional stability
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Vertical integration enables: • Quality control of all key
steps in the production process.
• Closer interaction between production and R&D.
• Sustainable development and introduction of new products.
• More competitive cost structure.
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1. In-house HDF production
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Classification of Laminate Flooring: Residential
Bedroom
Living Room, Entrance Hall
Living Room, Entrance Hall, Kitchen
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Classification of Laminate Flooring: Commercial:
Bedroom, Hotel, Conference Room, Small Office
Classroom, Small Office, Boutique
Corridors, Shops, School, Multi-purpose Room, Office
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• Swelling percentage of the HDF core board• Anti-Static• Sound properties• Locking system
By which standards is manufacturing governed?
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•Dent resistance is 1.5 times better than vinyl.•Impact resistance is better for laminate. •Abrasion resistance is better.•Heat resistance exceeds all sheet vinyl.•Chemical and stain resistance is the same as vinyl with urethane wear layers, and better than vinyl and vinyl composition tile without urethane wear layers. •Laminates exceed the scratch resistance of vinyl by two times
How does laminate compare with sheet vinyl?
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•Laminate is 3-5 times stronger and 10 times less brittle than ceramic tile.•Laminate is 10 times more resistant to breaks or cracks due to falling objects.•Ceramic tile does not burn.•Slip resistance with rubber contact material was about the same.
How does laminate compare with ceramic tile?
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•Laminate’s surface is harder than that of acrylic or urethane coated engineered hardwood, but about the same as the wood finish of aluminum-oxide impregnated polyurethane•Laminate has greater impact resistance. •Scuff resistance with laminate is better than acrylic-finished wood floors.•It takes 2-3 times more force to scratch laminate flooring.
How does laminate compare to natural wood flooring?
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Floating Floor System Requires ½ Inch Gap
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• Adds a cushion that makes walking more comfortable
• Muffles sound• Improves the floor’s resistance to dents• Evens out minor irregularities in the sub-floor• Provides thermal insulation for both heating and
cooling.
The Foam Cushion
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• Some floors may require a vapor barrier, especially those “below grade” (below ground level) or over cement floors. The vapor barrier is a polyethylene film, installed under the foam.
• Warn the customer that he can’t use poly film over wood, particleboard or other organic materials.
The Foam Cushion
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• Underlayments level any unevenness in the subfloor.
• Underlayments provide a barrier to moisture coming from the subfloor.
• Underlayments reduce sound transmitted to the floor below and in the room.
• They are required under the Mohawk laminate flooring warranty.
Reasons for Using Underlayment
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Transmission SoundTo reduce the noise from walking that is transmitted to the room below and that could be disturbing to the persons underneath.
oTo reduce this you need more air in between the floor and the subfloor.
Reflection Sound
The noise that one hears while walking on the floor and IN THE ROOM itself.oTo reduce this you need more mass in
between the floor and the subfloor.
Sound Reduction
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Uniclic® technology Angle Installation
1. Short End
2. Long End
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Uniclic® angling method
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Uniclic® sliding method
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• It’s easier to maintain
• It’s fade resistant
• It’s easy to install
• It’s dent resistance
Turn Features into Benefits
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• Vertical integration & manufacturing excellence• In- house MDF/HDF production• In-house impregnation• In house presses• In-house cutting, milling and packaging• In-house distribution
• Innovation
• Branding
Why Mohawk-Unilin Laminate?
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•Warranties
•Up to 25 year residential wear warranty
•Up to 5 year medium commercial wear warranty
•Commercial AC4 wear rating
•Random or Registered embossing
•25 year water resistance warranty (When installed with
Mohawk underlayment)
•Anti-static and hypoallergenic
Why Mohawk-Unilin Laminate?
196
Vinyl Flooring Product Knowledge
197
$2 billion dollar per year businessComprises 14% of residential flooring
business
Excellent value for your dollarThe most styling options
Vinyl is Alive and Well!
198
• Wide array of patterns, textures, and colors• More Soft & resilient than other hard surfaces• Highly stain resistant• Moisture resistant• Insulates and absorbs sound• Exceptional performance in high traffic areas• Easy to care for• A floor for any budget
Advantages of Vinyl
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• Carrier for product• Typically 15 - 25 mils thick (1 mil = 1000th of
an inch)• Made of cellulose, fiberglass, latex & fillers• Must be smooth, clean surface• Sealed with coating for biocide protection & to
prevent & minimize felt dirt.
Rotogravure Process – The Felt
202
felt
• Surface you print on
• Must be smooth, clean surface
• Gives floor its “resilience” and “cushion”
• Final thickness (after expansion) ranges from 20-35 mils
Rotogravure Process –Pre-gel Coating
203
feltfelt
Pre-gelPre-gel
Rotogravure Process - Printing
204
FeltFelt
PatternPattern
Pre-gelPre-gel
• Printing Inks (water based Inks today)Two Types1. Embossing (chemical retardant)2. Non-embossing
• Inks provide more than just color• Alkali resistance• Rub resistance• Light and heat stabilities (fade less)
Rotogravure Process - Printing
205
FeltFelt
PatternPattern
Pre-gelPre-gel
Rotogravure Process – Adding The Wear-layer
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feltfelt
patternpattern
pregelpregel
wearlayer
Urethane• Applied as a top-coat and UV cured• High performance wearlayer• Excellent stain & scuff resistance• Easiest floor to clean• No waxing or buffing needed• High-medium-low gloss range
Aluminum OxideNylon
Vinyl Excellent stain resistance Easy to clean Excellent long-term gloss
retention Worn areas can be buffed
Wearlayer Types
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Rotogravure Process - Fusion
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patternpattern
feltfelt
CUSHIONCUSHION
wearlayer
Inlaid ProcessThe Carrier Back
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Carrier
We begin with a carrier belt
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Inlaid ProcessApplying the Chips
belt
Q Q
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Inlaid Process: Thru Chip Pattern
Carrier
Chips
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Inlaid ProcessCalendaring
Calendars or Rollers
Q
213
Inlaid Process adding the Wear-layer
Felt Chips
Wearlayer
• Higher cost to manufacture
• Material itself is heaver to handle
• Available mostly in six foot widths
• Difficult to seam
• Completely different look than rotogravure
Inlaid Product
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Rotogravure - Design is printed with inksMore cost effective12 ft. widths - fewer seams
Inlaid - Color chips are deposited on a sheet“Thru” chip colorCompletely different look than rotogravure
Inlaid vs. Rotogravure
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Tile
Sheet Vinyl
Styles of Resilient Floor-covering
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VCT Tile Line
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Q
Q
Q
Calendars
Press
Stacker
Chips from chip linePolish Application
• Comes in 6’ and 12’ widths with some 15’
• Rotogravure (Printed) usually 12’ or 15’
• Inlayed (Thru chip patterns) usually 6’
Sheet Vinyl Flooring
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Overall thickness helps with Resistance to indentations More cushioning under foot Dampens noise & more insulation
Wear-layer types and thickness Urethane is stronger than (PVC) Aluminum oxide is very scratch resistant Nylon also adds to the scratch resistance
Walk-off mats
Vinyl Performance
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Full Spread (Most Common)
Perimeter Glued
Loose Laid or stapled
Vinyl Installation Methods
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Thank you
Visit us at www.mohawku.comTo Continue Learning . . .
Questions?
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