A two-stage tire assessment combines chemical aging and physical damage checks to improve retreadability decisions without unnecessary inspection steps.
Excess generated power is redirected to tire heating when battery absorption is limited, cutting rolling resistance and extending EV range.
A stiff encapsulating layer breaks down during vulcanization to form sealant, cutting off-gassing and preserving tire uniformity and balance.
Wheel and roadway sensors predict high-frequency wheel-road interactions to deliver faster, more accurate steering torque feedback.
Current Fourier analysis reveals inverter anomalies and optimal switching frequency in electric drivetrains, reducing noise and energy loss.
A mixed bead fill uses super absorbent beads to remove tire cavity moisture, preventing clumping, valve clogging, corrosion, and pressure swings.
Different intermediate layers in a tyre sensor generate triboelectric voltage from friction, enabling force measurement without external power.
A silicone foam layer and intermediary adhesive reduce tire cavity resonance noise without blocking sealant flow or puncture sealing.
Inflatable baffles segment the tire cavity to raise resonant frequencies and reduce cabin noise from tire vibrations in EVs and hybrids.
A tuned Helmholtz absorber frequency spread cuts tire cavity resonance across running speeds while reducing absorber count, weight, and complexity.
Virtual wheel dynamics and hub loading make road interaction more realistic on a test bed, enabling vehicle tuning without a physical prototype.
A coil-based coupling transformer and PCB-in-gap layout help rubber RFID tags resist deformation and carbon black impedance shifts.