By aligning tire RFID tags relative to rim air valves, this case prevents twin-wheel signal interference and keeps sensor readings unambiguous.
Segmented full and edge bands suppress radial growth while easing sidewall strain to improve durability and uneven wear resistance.
Alternating notches and slits in center and quarter lands balance traction with uneven wear resistance by distributing tread contact pressure.
An inclined stone ejector in a heavy truck tire tread evens ground forces to curb irregular wear and prevent stone damage.
A cross-belt layout with tuned D1, G1, and carcass profile ratios improves buttress heat dissipation while limiting belt stress concentration.
Controlled tread slip and an SBR-silica compound cut rolling resistance while preserving wear resistance, durability, and wet grip.
Controlled pores and a cyclic polyol in natural-rubber tread compound improve on-ice traction while preserving wear resistance.
Optimized strand geometry improves elastomer penetration to cut corrosion risk while preserving cable flexibility and bending endurance.
A crossed valve and line layout enables simultaneous multi-axle tire pressure changes with fewer components and less installation space.
Forced air flow through narrow tread grooves cools thick-gauge tire tread and belt regions, improving durability under heavy-load use.
A narrow tread groove with a widened bottom exposed gradually during wear helps maintain wet traction while reducing rolling resistance.
Stiffer outer bead layers than the bead filler reduce bending hot spots, improve heat resistance, and ease heavy truck tire manufacturing.
A cyclic polyol and modified diene polymer strengthen natural-rubber tire compounds to improve cut resistance, wear resistance, and tire life.
Fine carbon black in a multi-rubber tread compound raises hardness and elongation to resist block chipping and wear in heavy-duty tires.
A two-working-ply crown with a circumferential layer improves heavy-duty tire endurance on stony ground while limiting mass and cost.
Specific silica, isoprene rubber, SBR, and plasticizer ratios suppress early tread abrasion under sustained high tire loads.