Views: 0 Author: Site Editor Publish Time: 2026-10-14 Origin: Site
Paper machine clothing does not have one standard price. The cost depends on whether the mill needs a forming fabric, press felt, or dryer fabric, as well as the machine width, clothing length, construction, raw material, paper grade, operating speed, permeability, felt weight, seam design, and other position-specific requirements.
A small single-layer fabric for a low-speed machine and a wide multilayer fabric for a high-speed paper machine may both be called paper machine clothing, but their material consumption, manufacturing complexity, and operating requirements are very different. For this reason, professional suppliers normally calculate a quotation after reviewing machine and process data rather than publishing one universal price.
Sun Hong Group's Paper Machine Clothing range includes forming fabrics, press felts, and dryer fabrics. For mills, the more useful purchasing question is therefore not simply “How much does paper machine clothing cost?” but “What clothing specification gives the lowest cost per tonne of paper while maintaining drainage, paper quality, runnability, and acceptable service life?”
Paper machine clothing is an engineered consumable manufactured for a specific machine position. Width and length establish the basic dimensions, but dimensions alone do not define the product.
Two forming fabrics with exactly the same width and length can use completely different weave structures, yarn diameters, paper-side surfaces, machine-side constructions, permeability values, and raw-material quantities. Two press felts of the same size can differ in base construction, batt fiber, GSM, seam type, void volume, and compression resistance. Dryer fabrics with the same dimensions can use spiral or woven construction, round or flat yarns, different permeability levels, and different seam structures.
The main cost variables include:
Cost Factor | Why It Changes the Price |
|---|---|
Clothing Type | Forming fabric, press felt, and dryer fabric use different manufacturing processes |
Width | Wider machines require more material and more demanding production equipment |
Length | Longer clothing directly increases material consumption |
Construction | Single-, double-, multilayer, spiral, and laminated structures differ in complexity |
Raw Material | Yarn and fiber type affect material cost and performance |
Paper Grade | Tissue, printing, packaging, and board have different technical requirements |
Machine Speed | High-speed applications require greater dimensional stability and precision |
Permeability | Specific drainage or ventilation targets require different structures |
Felt GSM | Heavier press felts contain more material and may use more complex bases |
Seam Design | Seam construction adds engineering and manufacturing requirements |
Surface Requirement | Fine paper grades may require finer and more controlled surfaces |
Customization | Non-standard positions require additional design work |
Quantity | Order volume can affect manufacturing and logistics efficiency |
Shipping | Large clothing can require substantial packaging and freight volume |
A technically meaningful quotation therefore starts with a full clothing specification.
The cost of a forming fabric is strongly influenced by its dimensions and layer structure.
A forming fabric is a precisely woven synthetic fabric used in the forming section to support fibers while allowing water to pass through. Sun Hong's Paper Machine Clothing Forming Fabric covers different constructions for paper formation, drainage, stability, and wear resistance.
Simpler structures generally require less complex weaving than advanced multilayer fabrics. A single-layer forming fabric uses a relatively straightforward yarn arrangement, while 2.5-layer and triple-layer structures require more yarn systems and greater control over the relationship between the paper side and machine side.
This does not mean a triple-layer fabric is automatically “expensive” in economic terms. A higher initial purchase price can be justified if the fabric produces better formation, longer service life, greater dimensional stability, or more consistent drainage on a demanding high-speed machine.
The main forming-fabric price factors are:
Machine width
Fabric length
Layer construction
Yarn diameter
Yarn density
Polyester or other monofilament specification
Paper-side surface design
Machine-side wear structure
Air or water permeability
Dimensional stability requirements
Heat-setting and finishing requirements
Paper grade
Machine speed
A wide, high-speed paper machine generally needs a more demanding forming fabric than a narrow, slower machine. Large widths require precise weaving and dimensional control because even small structural differences across the fabric can influence drainage and tracking.
It normally requires more complex manufacturing than a single-layer design.
A triple-layer forming fabric effectively allows the paper side and machine side to be optimized for different purposes. The upper surface can provide fine fiber support and reduced marking, while the lower structure provides wear resistance and running stability.
This involves additional yarn systems and more complicated weaving.
However, purchasing decisions should compare the operating benefit rather than structure alone.
A single-layer forming fabric may be the most economical choice for a moderate-speed machine producing a relatively undemanding grade. On another machine, choosing the cheaper single-layer fabric may increase sheet-quality problems or shorten clothing life.
The lowest purchase price and the lowest production cost are therefore not always the same.
Press felt pricing is particularly position-specific because felt construction varies widely according to paper grade, press design, water load, machine speed, and nip conditions.
Unlike a forming fabric, a press felt normally contains a structural base together with needled batt fiber. The base can use single-, double-, triple-, or laminated structures, while the batt weight and fiber specification can be adjusted according to the required surface and dewatering properties.
As the structure becomes heavier or more complex, raw-material consumption and manufacturing requirements increase.
Important press felt cost factors include:
Factor | Effect on Press Felt Cost |
|---|---|
Width and Length | Determine total felt area |
GSM | Higher mass generally means more fiber/material |
Base Layers | More complex base structures require additional manufacturing |
Batt Fiber | Fiber specification affects surface and dewatering performance |
Press Type | Conventional, vacuum, grooved, or shoe press require different designs |
Paper Grade | Surface and water-removal requirements vary |
Machine Speed | Higher speed requires better structural stability |
Nip Load | Higher loading changes base and batt requirements |
Seam Type | Seamed and endless configurations have different construction |
Surface Fineness | Fine paper and tissue may require more controlled batt surfaces |
Sun Hong currently asks customers seeking a press felt price to provide machine speed, paper type, paper weight, and the felt dimensions including width, length, and GSM. This illustrates why a generic press felt price cannot accurately represent an actual paper machine position.
Seamed felt introduces additional construction around the joining system, but the purchase price should not be considered in isolation.
A Paper Machine Clothing Seamed Press Felt can be installed by joining the seam on the machine instead of threading an endless felt through a complex roll path.
On some machines, this can reduce installation work and shorten the shutdown associated with felt replacement.
The financial comparison should therefore consider:
Felt Purchase Price + Installation Labor + Replacement Downtime + Production Loss
A seamed felt may cost differently from an endless felt, but the more relevant question is whether the seam design is suitable for the press position and whether faster installation has economic value for that mill.
The seam must also remain stable and avoid undesirable marking at operating speed. A lower-cost seam design that creates repeated sheet defects would not be economical.
Paper grade changes the performance required from all three clothing types.
Tissue, printing paper, kraft paper, packaging grades, board, and specialty paper do not use clothing under the same conditions.
A tissue machine may require a very fine forming surface and highly uniform press felt because the lightweight sheet is sensitive to marking. A printing-paper machine can require excellent fiber and filler support. A recycled packaging machine may prioritize wear resistance, contamination tolerance, high water handling, and durability.
These technical differences influence manufacturing complexity.
For example:
Tissue
Fine sheet-support surface
High-speed stability
Low marking
Good release
Fine press felt batt
Printing and Writing Paper
Fine formation
Strong filler retention
Controlled drainage
Smooth press-felt surface
Controlled dryer-fabric permeability
Kraft and Packaging
High drainage capacity
High wear resistance
Strong felt base
Contamination resistance
Heavy-duty construction
Board and Pulp Board
High water handling
High mechanical stability
Greater press-felt void volume
Strong dryer fabric
A quotation should therefore always identify the paper grade and basis-weight range.
Dimensions have a direct effect on material consumption.
A fabric that is 6 meters wide and 50 meters long contains substantially more material than one that is 3 meters wide and 25 meters long. However, the price increase is not always perfectly proportional to area because wide-machine clothing can require more demanding production control and manufacturing equipment.
Width is especially important.
Very wide fabrics need consistent yarn tension and structure across the full cross-machine direction. Any variation can contribute to uneven drainage, moisture profiles, tracking behavior, or premature wear.
For press felt, total area is combined with GSM.
A simplified material indicator can be expressed as:
Felt Material Mass ≈ Width × Length × GSM
This does not calculate the selling price because manufacturing, structure, finishing, and other factors still matter, but it explains why two felts of equal area can have different costs when their GSM is significantly different.
Accurate dimensions are therefore necessary before a supplier can prepare a reliable quotation.
Machine speed often changes the required clothing specification.
Higher speeds create stronger dynamic forces and reduce the amount of time available for forming, pressing, and drying. Clothing must remain stable while traveling repeatedly around rolls and interacting with dewatering, press, and dryer equipment.
At higher speeds, manufacturers may need to provide:
Greater dimensional stability
More precise weaving
Improved seam performance
Better wear resistance
More controlled permeability
Higher-quality yarn or fiber
More stable heat setting
Better resistance to deformation
These requirements can increase manufacturing complexity.
However, using a lower-specification fabric simply because it costs less can create a much larger operating penalty if machine speed must be reduced.
Consider two clothing options:
Option A
Lower initial price but the machine must run slower because drainage or stability is insufficient.
Option B
Higher initial price but allows the machine to maintain target speed.
The mill should calculate the production value lost during reduced-speed operation. On a high-output paper machine, this can easily become more important than the difference in clothing purchase price.
Paper machine clothing is commonly produced from engineered synthetic yarns and fibers selected for strength, wear resistance, dimensional stability, water handling, heat resistance, and chemical resistance.
Forming fabrics commonly use polyester monofilaments and can use other materials where particular wear or chemical properties are required.
Press felts combine base yarns with needled synthetic batt fibers. Fiber diameter and material influence the surface, filtration, water handling, and resistance to compaction.
Dryer fabrics must withstand prolonged thermal exposure while maintaining dimensions and mechanical strength.
Raw-material selection therefore affects both purchase price and service life.
The least expensive yarn is not necessarily the lowest-cost option because early stretching, hydrolysis, abrasion, or loss of stability can force premature clothing replacement.
The correct question is:
How does the material perform under the mill's actual temperature, chemistry, mechanical load, and machine speed?
Dryer fabric cost depends on size, construction, permeability, yarn type, seam design, and thermal requirements.
Dryer clothing may use woven or spiral constructions. Spiral fabrics are formed from interconnected monofilament loops, while woven fabrics use structured warp and weft yarn systems.
Sun Hong's Flat Yarn Spiral Dryer Screen for High Speed Paper Machine uses a flat-yarn spiral structure designed for wide and high-speed paper machines. The current product specification lists anti-hydrolysis PET spiral material, a flat yarn structure, controlled air permeability, and a seam area designed to match the fabric body.
These features influence both manufacturing and performance.
Dryer fabric cost can be affected by:
Fabric width
Loop length
Spiral or woven construction
Round or flat yarn
PET or higher-temperature material requirements
Air permeability
Seam design
Hydrolysis resistance
Surface smoothness
Dimensional stability
Machine speed
Dryer temperature
A dryer fabric should not be selected by initial price alone because its influence on ventilation and sheet stability can affect drying efficiency and paper-machine speed.
Permeability is not simply a price upgrade; it is an operating specification.
Forming fabric permeability affects drainage. Press felt permeability affects water movement through the felt and conditioning. Dryer fabric air permeability affects vapor and air movement through the dryer section.
Changing permeability usually requires changes in yarn size, yarn density, weave structure, spiral design, or felt construction.
Two pieces of clothing with the same dimensions can therefore have different costs because they are designed to achieve different hydraulic or aerodynamic properties.
The key point is that higher permeability is not automatically more expensive or better.
A fabric must provide the correct permeability for the machine position.
Too open:
Fiber or filler retention can decline.
Sheet support can become weaker.
Dryer sheet stability can be affected.
Too closed:
Drainage can decline.
Press felt can retain too much water.
Dryer ventilation can become restricted.
The cost of the wrong permeability can therefore be much higher than the difference in purchase price.
Paper machine clothing is commonly customized because each machine position has unique operating conditions.
A supplier may need to adjust:
Dimensions
Yarn system
Layer construction
Permeability
Felt base
Batt fineness
GSM
Seam
Surface
Wear side
Heat resistance
Custom design requires technical evaluation and manufacturing control, but this does not mean every customized clothing order is automatically expensive.
Customization is normal in the industry because a standard fabric cannot be optimized for every paper machine.
What matters is whether the customization solves a real operational requirement.
For example, increasing forming-fabric wear resistance may be valuable when the mill experiences rapid machine-side abrasion. Changing press felt structure may be justified when the current felt compacts quickly and outgoing sheet moisture rises. Changing dryer fabric permeability can be worthwhile when dryer-pocket ventilation is limiting production.
Customization without a clear objective can increase complexity without providing a meaningful return.
Clothing quality cannot be judged only by appearance when the product is new.
Important quality factors include dimensional accuracy, yarn consistency, weaving accuracy, heat setting, batt uniformity, seam integrity, surface consistency, permeability distribution, and structural stability.
Problems in these areas may not appear until the product is installed.
For example, poor dimensional stability can create tracking problems after the fabric begins running. Uneven permeability can contribute to moisture variation. A weak felt structure can compact rapidly. A poor seam can create marking or mechanical failure.
Quality should therefore be evaluated through both manufacturing control and operating performance.
For procurement teams, useful indicators include:
Correct dimensions
Uniform structure
Consistent permeability
Proper heat setting
Clean surface
Correct seam
Stable edge construction
Appropriate material specification
Reliable installation guidance
Traceable product specification
A low purchase price loses its value if the clothing must be replaced significantly earlier than expected.
The easiest way to compare clothing is often purchase price. The more useful measure is cost per operating day or cost per tonne of paper.
For example:
Clothing Cost per Operating Day = Purchase Cost ÷ Effective Running Days
A more complete performance measure is:
Clothing Cost per Tonne = Total Clothing Cost ÷ Tonnes Produced During Its Effective Life
This changes the way two quotations are compared.
Assume one fabric is cheaper but operates for a shorter period. Another costs more but provides longer stable production. The more expensive fabric may have a lower clothing cost per tonne.
However, service life should not be maximized at any cost.
A fabric that lasts longer but causes poor drainage or forces reduced machine speed can still be economically worse.
The ideal clothing should combine:
Acceptable Purchase Cost + Stable Machine Speed + Good Paper Quality + Efficient Dewatering + Suitable Service Life
Paper machine clothing is a consumable, so mills replace it repeatedly throughout the machine's operating life.
Replacement frequency directly affects annual purchasing cost.
If a forming fabric costs less but lasts only a fraction of the expected operating period, the mill may purchase more pieces each year. More replacements also mean more shutdowns and installation work.
Service life depends on more than clothing quality.
It can be shortened by:
Roll misalignment
Excessive tension
Abrasive dewatering elements
Poor shower settings
Contaminated furnish
Chemical attack
Edge rubbing
Incorrect installation
Poor guiding
Excessive vacuum
High temperature
Damaged machine components
This means supplier price and mill operating practice must be considered separately.
A mill should not immediately blame the clothing when service life falls. If three successive fabrics fail in the same edge position, machine alignment or guiding may be the real cause.
Paper machine clothing replacement usually requires some degree of machine shutdown.
The financial impact includes more than installation labor. Every hour the machine is not producing paper represents lost output.
This makes installation time particularly important on high-capacity machines.
The real replacement cost can be considered as:
Clothing Purchase + Labor + Shutdown Time + Lost Production + Restart Loss
Restart can also have a cost.
After installation, some clothing—especially press felt—may require a period to reach stable operating conditions. Machine speed, moisture profile, or press performance can change during startup.
For this reason, a more expensive clothing product that provides stable installation and predictable startup can be financially preferable to a lower-price product associated with longer downtime or repeated adjustment.
Seamed press felts are one example where installation method can influence the overall economics of replacement.
Paper machine clothing directly influences water removal.
This has important energy consequences because water removed mechanically in the forming and press sections does not need to be evaporated later in the dryer section.
Forming fabric affects how much water leaves the sheet before pressing.
Press felt influences sheet dryness after the press section.
If press dewatering deteriorates, the dryer section must remove more moisture using steam and heat.
The economic impact can therefore be expressed as:
Poor Clothing Dewatering → Wetter Sheet → Higher Dryer Load → More Steam / Lower Speed
This is one reason a press felt should not be purchased only by price.
If a higher-performing felt improves stable dewatering and allows the dryer section to operate more efficiently, the energy or production benefit can outweigh the difference in felt price.
The same principle applies to forming fabric. Good drainage can reduce vacuum requirements or prevent the forming section from becoming the machine-speed bottleneck.
Exact financial benefit should be calculated from the mill's actual moisture, steam, energy, and production data rather than from generic percentage claims.
Paper quality losses can be more expensive than clothing itself.
Incorrect forming fabric can contribute to poor formation or wire marking. Incorrect press felt can create felt marks or uneven moisture. Dryer fabric problems can contribute to sheet instability or dryer marking.
If paper must be downgraded, reprocessed, or rejected, clothing purchase savings become insignificant.
The cost model should therefore include:
Clothing Cost + Quality Loss + Downtime + Energy + Production Rate
A mill producing higher-value specialty or printing grades may be willing to pay more for clothing that minimizes surface marking.
A packaging mill may accept a less sophisticated paper-side surface but place greater value on durability, contamination resistance, and high production capacity.
The economically correct clothing depends on what creates value for that specific paper grade.
Clothing life can decrease rapidly when fibers, fillers, pitch, stickies, scale, or other deposits accumulate in the structure.
A plugged forming fabric loses drainage.
A contaminated press felt loses void volume and water-handling capacity.
A dirty dryer fabric can lose ventilation performance.
Mills may then replace clothing because process performance has deteriorated even though the structure has not yet reached its mechanical wear limit.
Cleaning systems therefore affect the annual clothing budget.
Good shower coverage, clean shower water, appropriate pressure, correct nozzle condition, and suitable chemical cleaning can extend the useful performance window of clothing.
Upstream stock preparation is equally important. Effective contaminant removal reduces the load reaching paper machine clothing.
A mill comparing clothing suppliers should therefore consider whether poor historic clothing life is truly a product issue or a contamination-management issue.
A correctly selected fabric can still fail early if guiding and tension are poor.
Excessive tension can increase wear and loading on seams, bearings, rolls, and fabric structures. Insufficient tension can cause slipping, wrinkles, and unstable tracking.
Poor guiding can produce severe edge wear.
These mechanical problems increase clothing cost by shortening usable life.
The purchasing calculation should therefore include surrounding machine condition. If a forming fabric repeatedly damages one edge after only a short period, buying a stronger and more expensive fabric may not solve the root cause.
The mill should first inspect:
Guide rolls
Tension rolls
Alignment
Air bellow guider
Sensors
Bearings
Shower positions
Vacuum box edges
Fabric contact points
Optimizing machine condition can sometimes reduce clothing consumption more effectively than negotiating a lower unit price.
It can be, but only if the technical specification and operating performance are genuinely equivalent.
A lower price may simply reflect efficient manufacturing or lower commercial overhead. It should not automatically be interpreted as lower quality.
The problem arises when quotations appear similar but actually cover different specifications.
One supplier may quote a simpler forming-fabric structure while another quotes a more advanced multilayer design.
One press felt may have lower GSM or a different base construction.
One dryer fabric may use a different yarn structure or seam.
The procurement team should therefore normalize specifications before comparing prices.
Item to Compare | Forming Fabric | Press Felt | Dryer Fabric |
|---|---|---|---|
Width | Yes | Yes | Yes |
Length | Yes | Yes | Yes |
Structure | Layer/weave | Base structure | Spiral/woven |
Material | Yarn | Base + batt | Yarn |
Permeability | Yes | Yes | Yes |
GSM | Sometimes relevant | Critical | Product-specific |
Seam | Configuration | Endless/seamed | Seam design |
Paper Grade | Yes | Yes | Yes |
Machine Speed | Yes | Yes | Yes |
Position | Forming position | Press position | Dryer group |
Only after these items match should the quotation price be treated as directly comparable.
A more complete paper machine clothing cost model can be expressed as:
TCO = Purchase Price + Freight + Installation + Downtime + Energy Impact + Quality Loss + Maintenance Impact
Then subtract any operating value generated by better performance, such as increased production or reduced energy consumption.
For a simplified clothing comparison, mills can track:
Purchase cost
Installation date
Removal date
Effective operating days
Tonnes produced
Average machine speed
Paper quality issues
Steam or vacuum trends
Cleaning frequency
Reason for removal
This creates historical performance data for future purchasing.
Instead of saying:
“Supplier A costs 15% more.”
the mill can say:
“Supplier A costs X per tonne of paper produced, while Supplier B costs Y per tonne.”
This is a much more useful procurement metric.
A supplier needs enough information to identify the exact machine position and process requirement.
For a general inquiry, provide:
Information | Why It Is Needed |
|---|---|
Clothing Type | Forming fabric, felt, or dryer fabric |
Paper Grade | Defines process and surface requirements |
Basis Weight | Influences drainage and support |
Machine Width | Determines clothing width |
Clothing Width | Manufacturing dimension |
Clothing Length | Manufacturing dimension |
Operating Speed | Defines stability requirement |
Design Speed | Provides operating margin |
Furnish | Virgin, recycled, mixed |
Current Product | Provides design reference |
Current Service Life | Helps identify improvement target |
Current Problem | Drainage, marking, wear, contamination |
For a forming fabric, also provide structure, permeability, forming type, vacuum conditions, and existing fabric information.
For press felt, provide the exact press position, felt GSM, press type, nip conditions, vacuum arrangement, and current dewatering performance.
For dryer fabric, provide dryer group, temperature, speed, permeability, seam information, and ventilation conditions.
Providing complete information reduces the risk of receiving a quotation for technically different clothing.
Before purchasing, confirm more than price.
Useful questions include:
What structure is being quoted?
What raw material is used?
What dimensions will be manufactured?
What permeability is specified?
What GSM applies to the press felt?
What seam design is included?
Is the clothing designed for the stated machine speed?
What paper grade and basis-weight range is the design based on?
What machine position is the product intended for?
What installation guidance is available?
What information is needed if performance needs to be adjusted on the next order?
This makes future optimization easier.
Paper machine clothing often improves through repeated operating feedback. A mill can report drainage, felt condition, sheet dryness, wear location, service life, and paper marking
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