| Parameter | Specification |
|---|---|
| Product Type | Modular sports surface tile / thermoplastic rubber sheet |
| Dimensions | 305 × 305 × 16 mm |
| Material | Thermoplastic polymer rubber (TPR / TPE) |
| Surface Texture | Thickened hexagonal surface |
| Drainage System | Two-way drainage design |
| Bottom Structure | Octagonal bottom support structure |
| Connection System | Dense interlocking connection (tool-free, adhesive-free) |
| Anti-Slip Performance | Anti-slip; non-slip under wet conditions |
| Ground Stability | Good ground stability |
| Impact Absorption | [Insert Impact Absorption Test Value if Available] |
| Tensile Strength | Excellent tensile strength and toughness |
| Tear / Abrasion Resistance | Superior tear resistance and abrasion resistance |
| Compression Resistance | Good elasticity and resistance to compression deformation |
| Resilience | Excellent resilience |
| Operating Temperature | -40°C to 100°C |
| Low Temperature Performance | Confirmed |
| Weather Resistance | Weather-resistant and colorfast |
| Recyclability | 100% recyclable; environmentally friendly |
| Color Options | [Insert Color Options if Available] |
| Certifications / Test Standards | [Insert Certification / Test Rating if Available] |
Q1: Is there a confirmed impact absorption rating for this tile, and how does the structure contribute to impact attenuation?
A specific numerical impact absorption rating (such as a percentage or force reduction value) has not been confirmed for this product in the available specification data; buyers requiring a documented value for tender compliance should request the applicable test report — [Insert Certification / Test Rating if Available] — from the supplier. The structural basis for impact attenuation in this tile is the 16mm thermoplastic rubber body, which deforms elastically under a strike load and recovers, and the octagonal bottom support structure, which distributes the transmitted force across the substrate footprint rather than concentrating it at a single point. These mechanisms reduce the peak force reaching both the athlete's skeletal joints and the underlying slab under repeated impact events. Procurement teams specifying this tile for school venues with documented safety thresholds should confirm the measured attenuation value matches the applicable local standard before finalizing specification.
Q2: How does the thickened hexagonal surface maintain anti-slip performance on wet outdoor courts?
The thickened hexagonal surface pattern creates raised geometric relief across the tile face, maintaining mechanical friction between footwear soles and the tile surface even when the surface film of water reduces the available coefficient of friction on smooth surfaces. The hexagonal relief geometry works by ensuring that a footwear sole cannot lie flat against the tile in full-contact mode under wet conditions — the raised edges provide edge-contact grip that persists through normal rainfall and cleaning cycles. Because this performance mechanism is structural rather than coating-dependent, it does not degrade with weathering, UV exposure, or standard surface maintenance over the tile's service period. Buyers procuring for outdoor school courts subject to year-round rainfall should request wet-condition anti-slip test documentation — [Insert Certification / Test Rating if Available] — to confirm classification against their applicable safety standard.
Q3: How does the two-way drainage design perform on courts without significant cross-slope?
Many modular outdoor sports surfaces rely primarily on substrate slope to direct surface water to perimeter drains, which means courts with shallow or uneven slopes can develop pooling zones at low points. The two-way drainage design in this tile addresses this by integrating drainage channels in both perpendicular horizontal axes of the tile body, so surface water can move laterally in either direction from any point on the court toward drainage outlets rather than depending solely on gravitational slope. On courts with minimal cross-slope — a common condition in flat-site school and municipal fitness installations — this dual-axis drainage path prevents the directional pooling that concentrates water along single-axis low gradients. Effective sub-tile drainage also requires that the underlying substrate (concrete, compacted aggregate, or permeable base) is either permeable or graded adequately to receive and disperse the drained water volume.
Q4: How does the tile maintain structural stability and connection integrity across the -40°C to 100°C operating range?
Thermoplastic rubber materials expand and contract dimensionally with temperature change; for a 305×305mm tile format, the absolute dimensional change per panel across the full -40°C to 100°C range is greater than for smaller tile formats, because the larger tile dimension amplifies the per-unit thermal displacement. The dense interlocking connection on this tile is designed to maintain panel engagement across this range, preventing the joint separation and edge lift that can occur when connection geometry has insufficient tolerance for thermal movement. At the low end of the range (-40°C), the material retains elastic performance and does not become brittle or permanently deformed, which is relevant for school outdoor courts in cold-winter climates that remain in use year-round. Buyers installing this tile at sites with high daily or seasonal temperature variation should confirm installation joint allowances and substrate preparation requirements with the supplier for their specific climate profile.