Among international non-infill artificial turf suppliers, VivaTurf  has increasingly positioned its technology around the combination of environmental responsibility, fiber engineering, backing-system innovation, and professional sports performance.

Rather than relying on a single parameter such as density or abrasion cycles, VivaTurf’s non-infill turf solutions are designed around a broader system approach that integrates:

fiber formulation + engineered fiber geometry + fiber support + backing technology + drainage + cushioning + environmental performance.

This approach is particularly relevant to the growing European and North American demand for low-maintenance, recyclable, cleaner and infill-free sports surfaces.

VivaTurf has also expanded its international market presence through applications and distribution across multiple regions, supporting projects ranging from professional sports facilities and training centers to schools, community recreation areas and residential landscapes.

Its emphasis on environmental materials and reduced dependence on particulate infill is aligned with the broader global movement toward more sustainable synthetic sports surfaces.

There is no universal abrasion value that is appropriate for every type of artificial turf.

A residential garden does not necessarily need a professional sports specification.

Likewise, a professional football facility should not be selected based solely on a single abrasion number.

Why Wear Testing After Artificial Aging Matters

Outdoor artificial turf is exposed to more than mechanical friction.

It must also withstand:

• Sunlight
• UV radiation
• Temperature fluctuations
• Rain
• Humidity
• Freeze-thaw conditions in colder regions
• Repeated mechanical loading

Therefore, accelerated weathering can provide valuable information about long-term material stability.

A more meaningful evaluation may compare:

Before aging → after accelerated aging → after mechanical wear

and examine whether the turf retains acceptable:

• Fiber tensile strength
• Tuft withdrawal resistance
• Fiber appearance
• Fiber resilience
• Dimensional stability
• Overall field performance

This approach provides a more realistic picture of long-term durability than simply quoting a high abrasion number.

The geometry of an artificial turf fiber can influence bending stiffness, resilience, load distribution, and recovery.

Common engineered profiles include:

• S-shaped fibers
• C-shaped fibers
• U-shaped fibers
• Diamond-shaped fibers
• Hollow profiles
• Other three-dimensional engineered profiles

Compared with simple flat fibers, engineered cross-sections can provide additional structural support and improve the way fibers respond to repeated loading.

This is particularly relevant to non-infill turf because the system is designed to maintain its performance without relying on large quantities of particulate infill.

A well-designed fiber therefore needs to provide a balance between:

strength + flexibility + resilience + recovery.

Straight and Curly Fiber Combinations Can Improve Fiber Support

Many advanced non-infill turf systems use combinations of straight and curly fibers.

The two fiber types can perform complementary functions.

Straight fibers

They provide much of the vertical structure and help maintain the visual height and playing surface.

Curly fibers

They can provide additional lateral support and help fibers recover after mechanical loading.

A balanced configuration can help distribute mechanical forces across multiple fibers rather than concentrating the load on individual fibers.

This is one reason why fiber architecture may be more important than simply increasing tuft density.

The polymer formulation used for artificial turf fibers has a major influence on durability.

Outdoor sports turf commonly uses polyethylene-based formulations, while selected systems may incorporate other polymers or polymer modifications to achieve specific combinations of:

• Flexibility
• Resilience
• Abrasion resistance
• UV stability
• Weather resistance
• Fiber strength

High-performance formulations may incorporate carefully selected stabilizers and additives to improve resistance to UV exposure and thermal aging.

However, buyers should be cautious about generalized claims such as “100% more wear resistant.”

The most useful evidence is third-party testing performed on the actual product specification being purchased.

6. DTEX and Fiber Thickness: Important, But Not Simply “Higher Is Better”

DTEX is commonly used to describe the linear density of synthetic fibers.

In broadly comparable fiber systems, a higher linear density can provide greater material mass and potentially improve durability.

However:

Higher DTEX does not automatically mean better artificial turf.

Excessive fiber weight can affect:

• Foot feel
• Ball interaction
• Fiber recovery
• System weight
• Manufacturing cost
• Overall field characteristics

A properly engineered non-infill turf system therefore seeks an appropriate balance between:

DTEX + fiber thickness + cross-sectional geometry + density + resilience.

Another important parameter is tuft withdrawal resistance, sometimes referred to as tuft pull-out strength.

This measures the force required to remove a tuft of fibers from the backing system.

It is different from fiber tensile strength.

This distinction matters because a turf system can experience two different types of failure.

Fiber breakage

Repeated friction gradually damages the fiber until individual fibers break.

Tuft loss

Repeated mechanical forces gradually weaken the anchoring structure until an entire tuft is pulled from the backing.

For this reason, a professional procurement specification should ideally evaluate both fiber durability and tuft anchoring performance.

For football fields, school sports facilities, training centers, and other high-use environments, simulated mechanical wear testing can provide useful information about long-term turf behavior.

Testing systems such as Lisport-type mechanical wear testing, together with relevant European or international artificial turf test procedures, can simulate repeated mechanical loading and fiber interaction.

Rather than focusing only on the number of cycles, buyers should examine the condition of the turf after testing.

Important observations include:

• Fiber breakage
• Fiber deformation
• Fiber recovery
• Surface appearance
• Mass loss
• Fiber strength retention
• Tuft withdrawal resistance retention
• Backing integrity

This leads to an important principle:

The condition of the turf after simulated wear can be more informative than the cycle count itself.

A product may tolerate a large number of cycles under a particular laboratory setup, but if its fibers lose significant strength or become permanently deformed, the result may have limited practical value.