A non-pneumatic tire spoke structure uses a reinforcing layer to tune flexibility and stiffness under load.
Segmented spokes with W and V cross sections distribute load to reduce vibration in non-pneumatic tires.
A sandwich tread ring with a shear layer reduces rolling resistance by minimizing hysteresis losses through co-cross-linked butadiene rubber.
Composite rubber spokes reduce rolling resistance and improve durability by optimizing material properties.
A non-pneumatic resilient wheel uses a composite annular shear band with nested cylindrical structures connecting internal and external membranes.
Compressing the intermediate section allows precise attachment to the shear band ring, eliminating distortion and adhesive fouling during assembly.
An embedded color-contrast layer in the solid tyre tread reveals excessive wear depth, eliminating premature replacement.
Angled reinforcement layers boost cornering stiffness and steering response while managing manufacturing complexity.
A non-pneumatic tire assembly uses a shear band and pretensioned spoke disks to carry road loads without inflation pressure.
A non-pneumatic tire uses a meta structure with rotational web spokes to support vehicle loads.
Defining specific ratios for zero, short, and long axial component lengths reduces vibration while maintaining lightweight structural efficiency.
A two-stage vulcanization process constructs a solid rubber tyre base body before adding the tread element and lateral flanks.
Through holes in the tread ring enable drainage while terminating reinforcing bodies prevents corrosion and improves durability.
A pneumatic tire tread features circumferential double blind perforations on ribs to absorb sound waves.
Segmented tire system with push-in rivets and T-tongue joints reduces material waste by enabling independent rim reuse.
An intermediary barrier prevents sulfur migration into a peroxide-cured butadiene reinforcing layer, preserving elasticity and reducing heat generation.
Variable spoke thickness reduces peak strain energy density by 40%, cutting crack initiation risk and extending fatigue life without adding mass.