TPE Eco-Friendly Artificial Grass Infill Granule — Five-Leaf & Snowflake Type

Key Features & Benefits

• Shore 0A–Shore 65D hardness range provides specification flexibility across multiple sport and turf system design requirements: The breadth of this range allows procurement teams to select a hardness grade matched to the specific performance standard of their turf system — softer grades for shock absorption in football and rugby fields, firmer grades for consistent ball roll in golf and cricket applications.
• -50°C to 136°C rubber state retention confirms functional performance across extreme climatic environments: At the low end, the TPE infill retains its elastic properties in sub-arctic outdoor conditions where rubber and SBR-based infills become brittle and lose shock absorption capacity; at the high end, the material does not degrade, harden, or off-gas under artificial turf surface temperatures recorded on exposed fields in high-solar-radiation environments.
• Non-toxic, radiation-free, and corrosion-resistant material profile addresses the environmental and athlete safety concerns associated with crumb rubber infill alternatives: Unlike SBR (styrene-butadiene rubber) infill derived from recycled tires, the TPE infill is confirmed as environmentally non-toxic and free of radiation and carcinogenic compound concerns that have driven regulatory scrutiny of crumb rubber infill in multiple jurisdictions.
• Five-leaf and snowflake granule geometries provide distinct infill packing and fiber interaction profiles for system-specific optimization: The five-leaf geometry creates a high-surface-area particle with interlocking fiber contact that resists lateral migration within the turf pile; the snowflake geometry provides a more open packing structure that may support drainage performance in high-precipitation or irrigated field installations.
• Good weather resistance and low wear under UV, rainfall, and mechanical loading reduces infill replenishment frequency and lifecycle maintenance cost: TPE infill that retains its material properties under long-term UV exposure and repeated mechanical compression from athletic use maintains the turf system's shock absorption and ball-sport performance parameters over a longer period before infill top-up or replacement is required.

Applications

1. Football field infill specification: Used as the primary synthetic turf infill material on FIFA-standard and recreational football fields where athlete safety, shock absorption, and environmental non-toxicity are primary procurement criteria alongside the applicable national or FIFA Quality Programme performance standard.
2. Rugby field synthetic turf systems: Specified as infill for rugby field installations where the Shore hardness grade and elastic recovery performance of the TPE granule must deliver the deceleration and impact attenuation properties required by the applicable World Rugby or national union turf performance standard.
3. Golf course artificial turf surfaces: Applied as infill on synthetic golf course fairways, tee areas, and putting greens where consistent surface hardness, low-migration particle geometry, and weather resistance across temperature extremes are required to maintain ball interaction characteristics across seasonal and daily temperature variation.
4. Softball and baseball field synthetic turf installations: Used in softball course synthetic turf systems where infill particle geometry and hardness grade influence ball bounce, surface hardness for sliding contact, and athlete ankle and knee joint protection performance.
5. Multi-sport synthetic turf facilities: Specified as infill for multi-purpose synthetic turf systems at school, municipal, and commercial sports facilities where a single infill specification must perform adequately across multiple sport types and usage intensities within a shared surface.

FAQ

Q1: How does TPE infill compare to SBR crumb rubber infill for compliance with environmental and athlete safety standards?

SBR crumb rubber infill, derived from recycled automotive tires, has been subject to regulatory scrutiny in multiple jurisdictions for the presence of polycyclic aromatic hydrocarbons (PAHs), heavy metals, and other compounds associated with its manufacturing origin. The TPE infill is confirmed as environmentally non-toxic, free of radiation, and manufactured from virgin thermoplastic elastomer compound rather than recycled rubber — eliminating the compound contamination pathways associated with tire-derived infill. The compliance with the new national standard provides a documented regulatory basis for procurement in markets where infill material safety certification is a tender requirement. Buyers in jurisdictions with specific synthetic turf infill regulations — particularly European markets with ECHA or national environmental agency guidance on synthetic turf infill — should request the applicable test report and chemical composition documentation — [Insert Specific Certification / Test Report References if Available] — to confirm the TPE infill meets their jurisdiction's specific threshold requirements.

Q2: What does the -50°C to 136°C rubber state retention range mean for outdoor sports field performance?

Surface temperatures on exposed synthetic turf fields under direct solar radiation can exceed ambient air temperature by 20–40°C, meaning a field in an environment with 35°C ambient air may have a surface temperature approaching or exceeding 70°C on the turf pile and infill layer. The confirmed 136°C upper limit of rubber state retention means the TPE infill retains its elastic and physical properties at surface temperatures well above those recorded in real-world field deployments, preventing the surface hardening and material degradation that can compromise shock absorption performance and turf system longevity at elevated temperatures. At the lower end, the -50°C minimum ensures the infill retains elastic recovery capacity in cold-climate outdoor installations where competing rubber infills stiffen and lose compliance, potentially increasing athlete fall impact risk in winter use. Buyers specifying infill for extreme-climate installations should confirm the applicable hardness grade and granule size with the supplier for their specific climate profile.

Q3: What is the engineering difference between the five-leaf type and snowflake type granule shapes, and how does shape selection affect field performance?

The five-leaf type granule has five elongated lobe projections radiating from a central body, creating a high-surface-area particle with pronounced geometric interlocking capability; when compacted within the turf pile, five-leaf particles mechanically interlock with each other and with turf fiber strands, resisting lateral migration under player loading and reducing the infill redistribution that degrades field performance uniformity over time. The snowflake type granule has a more complex multi-point geometry that, depending on its specific dimensions, can provide a more open packing structure with higher inter-particle void space, which may facilitate drainage performance on fields with high water management demands. Shape selection should be made in conjunction with the turf system designer based on the target sport, field drainage design, applicable performance standard, and the manufacturer's infill depth specification for the turf product. Buyers should confirm whether their turf manufacturer or sports governance body recommends or mandates a specific infill shape for their turf system type.