When sourcing nonwoven fabric, spunbond vs spunlace is an important comparison because the two materials can look similar at first glance but are produced using very different technologies and are designed for different performance requirements.
Spunbond nonwoven is commonly associated with strength, dimensional stability, low cost, and high production efficiency. Spunlace nonwoven is better known for softness, drape, absorbency, and a textile-like hand feel.
Neither material is universally better.
The correct choice depends on what the finished product needs to achieve.
For example, a manufacturer producing shopping bags may prioritize tensile strength and cost efficiency, making spunbond a logical choice. A wet wipes manufacturer may prioritize softness, liquid handling, and skin contact, making spunlace more suitable.
The difference between spunbond and spunlace begins with their manufacturing processes, but it ultimately affects the way the fabrics behave in real applications.
This guide compares spunbond vs spunlace nonwoven fabric across manufacturing process, fiber structure, strength, softness, absorbency, air permeability, durability, cost, and applications.
Spunbond is a nonwoven fabric manufactured by extruding a thermoplastic polymer into continuous filaments, forming those filaments into a web, and then bonding the web.
Polypropylene (PP) is one of the most widely used polymers for spunbond nonwoven fabric.
A simplified manufacturing sequence is:
Polymer → Extrusion → Spinning → Filament Drawing → Web Formation → Thermal Bonding → Winding
Because spunbond uses continuous filaments rather than short staple fibers, the resulting fabric can provide a useful combination of:
Tensile strength
Tear resistance
Dimensional stability
Lightweight construction
Air permeability
Production efficiency
Cost efficiency
Spunbond can also be engineered for different GSM, widths, colors, surface treatments, and functional requirements.
Spunlace, also called hydroentangled nonwoven fabric, is produced by entangling fibers with high-pressure water jets.
Unlike conventional PP spunbond, spunlace commonly uses staple fibers such as:
Viscose
Polyester
Wood pulp blends
Lyocell
Cotton
Other synthetic or cellulosic fibers
A simplified process is:
Fiber Preparation → Carding → Web Formation → Hydroentanglement → Water Removal → Drying → Finishing → Winding
The high-pressure water jets mechanically entangle the fibers, producing a fabric with a soft and textile-like structure.
Spunlace is particularly useful where the finished material needs:
Softness
Drape
Absorbency
Surface comfort
Liquid handling
A textile-like feel
This is why spunlace is widely used in wipes, personal care, medical products, cleaning materials, and other applications.
The simplest way to understand the difference is:
Spunbond uses continuous filaments and typically relies on thermal bonding.
Spunlace uses staple fibers and relies on high-pressure water jets to mechanically entangle them.
| Property | Spunbond | Spunlace |
|---|---|---|
| Typical fiber form | Continuous filaments | Staple fibers |
| Common polymer | PP | Viscose, polyester, blends, etc. |
| Main bonding method | Thermal bonding | Hydroentanglement |
| Typical hand feel | Firm to soft depending on design | Soft and textile-like |
| Absorbency | Generally low for untreated PP | Often higher |
| Strength-to-weight efficiency | High | Application-dependent |
| Drape | Moderate | Generally excellent |
| Air permeability | Generally good | Application-dependent |
| Liquid handling | Limited for standard PP | Often good |
| Skin-contact comfort | Application-dependent | Often excellent |
| Typical cost | Often lower | Often higher |
| Common applications | Bags, agriculture, furniture, hygiene, packaging | Wipes, medical, personal care, cleaning |
These are general characteristics. Actual performance depends on fiber type, GSM, bonding, web structure, finishing, and product design.
The spunbond manufacturing process begins with polymer resin.
For PP spunbond:
PP resin is fed into an extrusion system.
The polymer is heated until it reaches a suitable molten state.
The molten polymer is extruded through spinnerets to form continuous filaments.
The filaments are cooled and drawn to improve orientation and achieve the required filament structure.
The continuous filaments are distributed into a web.
The distribution of filaments influences:
GSM uniformity
MD/CD properties
Thickness
Air permeability
Surface appearance
Heat and pressure are used to bond the filaments together.
The finished fabric is cut to the required width and wound into rolls.
This continuous manufacturing process is one reason spunbond can be produced efficiently at large scale.
Spunlace production begins with staple fibers.
Fibers are opened, blended, and prepared for web formation.
The fibers are aligned and formed into a web.
Depending on the production system, the web may be cross-lapped to improve structure and directional properties.
High-pressure water jets pass through the web and entangle the fibers.
The excess water is removed.
The fabric is dried under controlled conditions.
Additional processes may include:
Softening
Hydrophilic treatment
Printing
Lotion application
Antibacterial treatment
Other functional finishing
The finished fabric is converted into rolls for downstream processing.
The hydroentanglement process produces a fabric that can have a soft, textile-like surface.
Strength is one of the most important differences when comparing the two materials.
Spunbond can provide excellent strength-to-weight performance because continuous filaments run through the fabric structure.
Its strength is influenced by:
Polymer type
GSM
Filament diameter
Molecular orientation
Web distribution
Bonding pattern
Bonding conditions
Production speed
Spunlace strength depends on:
Fiber type
Fiber length
Fiber blend
GSM
Hydroentanglement intensity
Web structure
Fiber orientation
Finishing
Therefore, it is not technically correct to say that every spunbond fabric is stronger than every spunlace fabric.
However, for many lightweight PP applications where high tensile efficiency and cost efficiency are important, spunbond is a strong choice.
Spunlace generally has an advantage when softness and textile-like hand feel are major requirements.
The hydroentanglement process creates a structure in which fibers are mechanically entangled rather than primarily bonded through a thermal calendering pattern.
This can provide:
Soft hand feel
Good drape
Flexible structure
Textile-like surface
Comfortable skin contact
Spunbond can also be engineered for softness.
However, if the primary requirement is a very soft, cloth-like material for wipes or personal care, spunlace is often the more natural starting point.
This is another major difference.
Standard PP spunbond is naturally hydrophobic.
Therefore, untreated PP spunbond generally does not absorb water in the same way as cellulosic fibers.
Spunlace can use fibers such as viscose, cotton, wood pulp, or blends that provide significantly better liquid absorption.
| Property | PP Spunbond | Cellulosic Spunlace |
|---|---|---|
| Natural water affinity | Low | Generally higher |
| Water absorption | Low | Higher |
| Liquid spreading | Treatment-dependent | Often good |
| Drying behavior | Application-dependent | Fiber-dependent |
| Typical use | Structural/protective layer | Wipes/absorbent products |
However, spunbond can be treated to improve hydrophilicity.
This can make it suitable for applications requiring improved wetting or liquid transfer.
Spunlace is one of the most important nonwoven technologies for wipes.
Why?
Because wipes generally require a combination of:
Softness
Absorbency
Liquid retention
Drape
Surface comfort
Cleaning performance
Spunlace can be produced from different fiber blends to achieve different performance profiles.
For example:
Viscose + polyester
can combine absorbency with strength.
Viscose + cellulose-based fibers
can emphasize absorbency and softness.
The appropriate blend depends on the wipe's intended use.
Standard PP spunbond is generally not the first choice when the primary function is absorbent wiping.
For nonwoven shopping bags, spunbond is usually a much more practical option.
The main reasons include:
Good tensile strength
Good tear resistance
Low material cost
Lightweight construction
Easy printing
Easy sewing
High production efficiency
Wide range of colors
Suitable stiffness
Bag manufacturers commonly select different GSM according to the desired bag structure and load-bearing requirements.
For example, a lightweight promotional bag may require a different GSM from a reusable shopping bag designed for repeated use.
Spunlace would generally be unnecessary for this application because its softness and absorbency provide limited commercial benefit for a typical shopping bag.
Both materials can be used in medical applications, but their functions may differ.
Spunbond can be used where the material needs:
Strength
Lightweight structure
Breathability
Protection
Low cost
Spunlace may be selected where:
Softness
Absorbency
Low lint
Drapability
Skin contact
are more important.
The correct material depends on the exact medical product.
For example, a disposable protective garment and a medical wipe have very different material requirements.
Hygiene products often use multiple layers with different functions.
Spunbond can provide:
Surface layers
Distribution layers
Support
Breathability
Structural strength
Spunlace may be selected when:
Softness is critical
Absorbency is needed
The material contacts skin
Liquid handling is important
In some product structures, different nonwoven technologies can be combined rather than choosing only one.
This is particularly important for advanced hygiene products.
Spunbond is widely used in furniture and mattress-related applications because of its:
Strength
Lightweight structure
Low cost
Processability
Dimensional stability
It can be used as:
Dust cover
Bottom fabric
Mattress backing
Upholstery support material
Furniture lining
Spunlace can be considered when a softer textile-like surface is required.
However, the additional cost of spunlace may not be justified if softness and absorbency are not important to the final product.
Spunbond is generally much more common for agricultural applications.
It can provide a useful combination of:
Lightweight construction
Air permeability
Moisture management
Strength
UV stabilization options
Cost efficiency
Applications include:
Crop covers
Frost protection
Plant protection
Nursery materials
Agricultural covers
Spunlace is generally less suitable when the main requirement is an economical, durable outdoor agricultural fabric.
For outdoor use, spunbond can also be engineered with UV stabilization and other treatments.
Air permeability is strongly influenced by fabric structure.
For spunbond, important factors include:
GSM
Thickness
Filament diameter
Web density
Bonding
Calendering
For spunlace, airflow depends on:
Fiber type
Fiber diameter
GSM
Web structure
Hydroentanglement
Compression
Finishing
Neither technology has a universally higher air permeability.
If airflow is critical, buyers should compare actual test results rather than assuming performance from the manufacturing process.
Thickness is not determined simply by whether the material is spunbond or spunlace.
It depends on:
GSM
Fiber diameter
Web structure
Bonding
Compression
Finishing
Production conditions
Two fabrics with the same GSM can have different thicknesses.
Similarly, two fabrics with similar thickness can have different mechanical and liquid-handling properties.
Therefore, thickness should be specified separately when it is important to the final product.
Tear resistance is important for:
Bags
Covers
Agricultural materials
Furniture materials
Protective products
Spunbond's continuous filament structure can provide good resistance to tear propagation, depending on GSM and web/bond structure.
Spunlace tear performance depends heavily on fiber type, orientation, GSM, and entanglement.
For procurement, compare:
MD tear
CD tear
Test method
GSM
Thickness
rather than comparing a single generic "tear strength" value.
Elongation describes how much the material extends before breaking under a specified tensile test.
The behavior of the two fabrics can differ because their internal structures are different.
Spunbond filament orientation and thermal bonding influence MD/CD elongation.
Spunlace fiber orientation and entanglement determine how the web deforms.
Higher elongation is not automatically better.
For example:
A bag may need controlled deformation.
A wipe may benefit from flexibility.
A medical product may require drape.
A structural cover may prioritize dimensional stability.
The required elongation depends on the finished product.
Dimensional stability can be important when a material must maintain its dimensions during:
Cutting
Sewing
Printing
Laminating
Heat processing
Converting
Spunbond thermal bonding can provide a relatively stable structure.
Spunlace performance depends on fiber type, entanglement, drying conditions, and finishing.
For high-speed converting, buyers should test the actual material under production conditions rather than relying only on laboratory data.
Surface feel can strongly influence the customer's perception of a finished product.
| Characteristic | Spunbond | Spunlace |
|---|---|---|
| Hand feel | Can range from firm to soft | Usually soft |
| Textile-like feel | Moderate | High |
| Drape | Moderate | Generally high |
| Skin comfort | Application-dependent | Often high |
| Surface structure | Bonding-dependent | Fiber-entanglement dependent |
If a customer touches the finished product directly, softness may have greater commercial importance than tensile strength.
This is one reason spunlace is common in personal care and wipes.
Cost is influenced by much more than the word "spunbond" or "spunlace."
Important factors include:
Fiber/polymer cost
GSM
Production efficiency
Energy consumption
Fiber blend
Finishing
Treatment
Width
Order quantity
Quality requirements
PP spunbond is often commercially attractive because PP is relatively economical and spunbond production is highly efficient.
Spunlace production involves fiber preparation, water systems, entanglement, water removal, drying, and other processing steps.
As a result, spunlace can have a higher material cost in many applications.
However, price/kg should not be the only comparison.
For B2B buyers, cost per square meter can be more useful than price per kilogram.
A simplified calculation is:
Cost per m² = GSM ÷ 1000 × Price per kg
For example, if:
GSM = 40 g/m²
Price = $1.30/kg
Then:
40 ÷ 1000 × $1.30 = $0.052/m²
The same calculation can be used to compare different GSM materials.
However, the cheapest material per square meter is not necessarily the cheapest solution.
The finished product may require different levels of:
Strength
Softness
Absorbency
Durability
Converting efficiency
Therefore, buyers should compare cost per usable finished product, not just fabric price.
Environmental performance depends on the complete material composition and end-of-life system.
Spunbond made from PP is synthetic and can be recycled in appropriate systems when the material is sufficiently clean and compatible with the recycling stream.
Spunlace can contain:
Viscose
Cotton
Cellulose
Polyester
Blends
The environmental profile therefore depends on the specific fiber composition.
A product made from a single material can present different end-of-life opportunities from a multilayer or blended product.
Therefore, buyers should ask about:
Fiber composition
Recycled content
Renewable content
Additives
Coatings
Laminations
End-of-life options
rather than judging sustainability solely from the word "spunlace" or "spunbond."
Use the following decision framework.
High strength-to-weight efficiency
Low material cost
Good tear resistance
Dimensional stability
Large-volume production
Lightweight structure
Agricultural materials
Nonwoven bags
Furniture materials
Packaging
Certain hygiene layers
High softness
Textile-like hand feel
Good drape
Absorbency
Liquid handling
Skin-contact comfort
Wipes
Cleaning products
Certain medical products
Personal-care materials
| Requirement | Spunbond | Spunlace |
|---|---|---|
| Low cost | ★★★★★ | ★★★ |
| High strength-to-weight | ★★★★★ | ★★★ |
| Softness | ★★★ | ★★★★★ |
| Absorbency | ★ | ★★★★★ |
| Drape | ★★★ | ★★★★★ |
| Nonwoven bags | ★★★★★ | ★ |
| Wet wipes | ★ | ★★★★★ |
| Agricultural covers | ★★★★★ | ★ |
| Furniture backing | ★★★★★ | ★★ |
| Skin-contact comfort | ★★★ | ★★★★★ |
| Outdoor UV applications | ★★★★★ | ★★ |
| Liquid distribution | ★★★ | ★★★★★ |
| Large-volume economical production | ★★★★★ | ★★★ |
The ratings are a practical comparison rather than universal technical specifications.
Imagine a buyer is developing two products.
The requirements are:
80 GSM
High tensile strength
Good tear resistance
Easy printing
Low cost
Multiple colors
Sewing compatibility
Spunbond is the logical starting point.
The additional softness and absorbency of spunlace would not provide enough benefit to justify the higher material cost.
The requirements are:
Soft hand feel
Good liquid absorption
Comfortable skin contact
Good drape
Ability to hold lotion
Spunlace is the more natural starting point.
The strength and low cost of PP spunbond are less important than softness and absorbency.
This illustrates the central principle:
Choose the nonwoven technology based on the function of the finished product.
A common purchasing mistake is comparing two fabrics only by GSM.
For example:
50 GSM spunbond
versus:
50 GSM spunlace
The same GSM does not mean the fabrics have the same performance.
Their:
Fiber composition
Fiber structure
Bonding mechanism
Absorbency
Tensile behavior
Softness
Thickness
Air permeability
can be completely different.
GSM only tells you how much mass is present per square meter.
It does not tell you whether that material is appropriate for the finished product.
Another mistake is to select the material with the highest tensile strength.
A wipe does not need to behave like a shopping bag.
Likewise, a reusable bag does not need the same softness or absorbency as a facial wipe.
The right selection should consider:
Performance requirement → Fabric property → Finished-product performance → Total cost
rather than:
Highest specification = Best fabric
When requesting samples, ask suppliers to provide a complete specification.
| Specification | Why It Matters |
|---|---|
| Fiber/polymer composition | Determines fundamental behavior |
| GSM | Material quantity |
| Thickness | Physical structure |
| MD tensile | Machine-direction strength |
| CD tensile | Cross-direction strength |
| MD/CD elongation | Deformation behavior |
| Tear strength | Resistance to tear propagation |
| Air permeability | Breathability |
| Absorbency | Liquid handling |
| Wet strength | Performance when wet |
| Surface treatment | Functional behavior |
| Width | Production compatibility |
| Roll length | Logistics/converting |
| Test method | Allows meaningful comparison |
This prevents a common problem where two suppliers provide different test data that cannot actually be compared.
For B2B nonwoven purchasing, the supplier should be evaluated on more than quotation price.
Important factors include:
Raw material consistency
GSM consistency
Width consistency
Tensile consistency
Roll-to-roll uniformity
Treatment consistency
Packaging
Delivery reliability
Production capacity
Quality control
Communication
For large-volume orders, a small variation in fabric quality can create substantial downstream losses.
Therefore, supplier selection should consider total production cost, not simply fabric price.
A typical spunbond RFQ might specify:
Material: PP spunbond nonwoven
GSM: 60 GSM
Width: 160 cm
Color: Custom
MD tensile: Required value
CD tensile: Required value
MD/CD elongation: Required values
Tear strength: Required values
Treatment: Hydrophobic / hydrophilic / untreated
UV stabilization: Required if outdoor use
Roll length: Required length
Application: Reusable shopping bags
Quantity: Required quantity
A spunlace RFQ may need additional information about fiber composition and liquid performance.
For example:
Material: Spunlace nonwoven
Composition: Viscose/polyester blend
GSM: 50 GSM
Width: 180 cm
Color: White
Softness: Required
Absorbency: Required
Wet strength: Required
MD/CD tensile: Required values
Application: Wet wipes
Finishing: As required
Roll length: Required length
Quantity: Required quantity
This is much more useful than simply asking:
"Please quote spunlace fabric."
The lowest price/kg does not necessarily produce the lowest cost per finished product.
Equal GSM does not mean equal performance.
Softness is valuable only when the finished product requires it.
Strength depends on the specific fabric construction and test method.
A spunlace made from viscose behaves differently from polyester spunlace or a blended structure.
Tensile, tear, absorbency, and other properties should be compared using compatible test methods.
The fabric should ultimately be tested after converting into the actual finished product.
If your product needs:
Strength + low cost + lightweight structure → Spunbond
Softness + absorbency + drape → Spunlace
Reusable shopping bags → Spunbond
Wet wipes → Spunlace
Agricultural covers → Spunbond
Furniture backing → Spunbond
Skin-contact cleaning wipes → Spunlace
High-volume economical structural material → Spunbond
Textile-like disposable material → Spunlace
These are starting points rather than absolute rules.
The difference between spunbond and spunlace is not simply that one is "strong" and the other is "soft."
They are fundamentally different nonwoven technologies.
Spunbond is generally attractive when buyers need:
Strength
Lightweight construction
Cost efficiency
Dimensional stability
High production efficiency
Outdoor durability options
Spunlace is generally attractive when buyers need:
Softness
Absorbency
Drape
Liquid handling
Textile-like feel
Skin-contact comfort
The best material is determined by the finished product.
If you are buying fabric for bags, agriculture, furniture, packaging, or structural applications, spunbond is often a logical starting point.
If you are producing wipes, personal-care products, cleaning materials, or other products where softness and absorbency are central, spunlace may be more appropriate.
For a professional purchasing decision, compare fiber composition, GSM, thickness, tensile strength, elongation, tear strength, air permeability, absorbency, and total cost rather than choosing based on a single property.
The most important question is not:
"Is spunbond better than spunlace?"
It is:
"Which nonwoven structure gives my finished product the required performance at the lowest practical total cost?"
Spunbond is generally made from continuous filaments and bonded thermally, while spunlace is made from staple fibers that are mechanically entangled using high-pressure water jets.
Not universally. Specific strength depends on fiber composition, GSM, web structure, bonding, and test method. Spunbond often provides excellent strength-to-weight efficiency in lightweight PP applications.
Spunlace is generally softer and has a more textile-like hand feel, making it suitable for wipes, personal care, and skin-contact applications.
Spunlace is generally more absorbent when made from cellulosic fibers such as viscose or cotton. Standard PP spunbond has low water absorbency unless it is specially treated.
Spunbond is often more cost-efficient for large-volume structural applications, but actual pricing depends on GSM, fiber composition, treatments, production process, quantity, and specifications.
Spunbond is generally the more suitable choice because it offers a useful combination of strength, printability, durability, color options, and cost efficiency.
Spunlace is generally more suitable because softness, absorbency, drape, and liquid handling are important characteristics of wipe materials.
Yes. Spunbond is widely used in various hygiene-product structures. Different layers may require different properties, including hydrophilicity, softness, strength, and air permeability.
It can be used in selected outdoor applications, but suitability depends on fiber composition, UV resistance, moisture resistance, mechanical requirements, and expected service life.
No. GSM measures mass per square meter, while thickness measures the physical distance between the fabric surfaces. Different structures can produce different thickness at the same GSM.
Neither technology is universally better. Air permeability depends on GSM, thickness, fiber or filament structure, bonding, entanglement, porosity, and finishing. Actual test results should be compared.
Start with the required finished-product performance. Choose spunbond when strength, lightweight construction, durability, and cost efficiency are important. Consider spunlace when softness, absorbency, drape, and liquid handling are more important.
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