Smart, Green, Custom: Tire Trends
As the global automotive industry accelerates its transformation towards electrification and intelligentization, and with the deepening implementation of the dual-carbon strategy, the performance requirements for tires, as the only component of a vehicle in contact with the ground, are undergoing profound changes.
The traditional evaluation system, centered on wear resistance and grip, has gradually expanded to a comprehensive performance consideration encompassing intelligent sensing, low-carbon energy saving, and customized adaptation. Currently, tire performance development is showing three core trends, precisely aligning with the needs of new energy vehicle development and sustainable mobility goals.
Intelligent upgrading has become a core breakthrough, achieving a leap from "passive load-bearing" to "active sensing." Driven by the wave of automotive intelligence, tires are evolving from simple mechanical components into "intelligent terminals."
Michelin's upcoming intelligent tire series, to be launched at CES 2026, integrates sensors and AI technology to monitor real-time driving dynamic data such as braking intensity and vehicle load, accurately judging tire wear status and providing early warnings 7-10 days in advance. Its intelligent wear monitoring function offers more than three times the data dimensions of traditional tire pressure monitoring systems.
These technologies not only extend tire life by 15% but also reduce the accident rate on slippery roads by 22%. Through the "My Tires" app, data visualization transforms safety assurance from reactive to proactive prevention. Pirelli's previously launched "Smart Connected Tire" platform has already achieved the identification of road conditions such as heavy rain, and the deep integration of tires and vehicle networking systems is driving the formation of a comprehensive travel safety monitoring system. It is estimated that by 2030, smart tire technology will save the global market $1.68 billion in costs and become standard equipment on mid-to-high-end models.
The iteration of low-carbon and energy-saving performance is accelerating, and green tires are becoming the market mainstream. Driven by the EU's carbon peaking target and China's dual-carbon strategy, low rolling resistance and recyclable green tires have become the focus of industry research and development. Rolling resistance accounts for 20%-30% of the total resistance of a vehicle, and its impact on the range of new energy vehicles is particularly significant—a 15%-20% reduction in rolling resistance can increase the driving range by 3%-5%, meaning an electric vehicle with a 500km range can gain an additional 15-20km of range.
Currently, the industry is using environmentally friendly formulations such as silicon-based composite materials and modified polymers, combined with structural designs like closed tire shoulders and finely patterned tread blocks, to generally control the rolling resistance coefficient of new energy vehicle tires to below 0.65%, with some high-end products, such as Goodyear e·Ruicheng, reaching as low as 0.563%.
Simultaneously, the application of sustainable materials continues to increase, with alternative materials such as bio-based rubber and recycled fibers gradually becoming more widespread. Combined with environmentally friendly manufacturing processes such as water-based adhesives, VOC emissions are significantly reduced. Driven by both policy and market forces, the market share of green tires is expected to rise to over 35% by 2030, becoming a core engine of industry growth.
Customization capabilities are being strengthened to precisely match the characteristics of new energy vehicles. The high load-bearing capacity, high torque, and low noise requirements of new energy vehicles are driving tire performance towards customization.
Due to the battery packs, the overall weight of new energy vehicles is 10%-30% higher than that of comparable gasoline vehicles, requiring tires with stronger load-bearing capacity. The industry is generally adopting designs such as high-strength aramid fiber cords and thickened sidewall rubber to optimize load-bearing performance.
To address the issue of increased tire noise in new energy vehicles due to the absence of engine noise, technologies such as sound-absorbing cotton padding and asymmetric variable pitch tread patterns are widely used, reducing tire noise by 3-5 decibels and improving driving comfort. Simultaneously, to combat wear issues caused by high torque during start-up, new energy vehicle tires incorporate wear-resistant fillers such as silica, increasing the Shore hardness of the tread by 5-10 degrees and the tread depth by 0.5-1 mm, effectively extending service life.
From a market perspective, high-end new energy vehicles have begun to adopt customized tires, such as the Pirelli P Zero Elect series used in the Tesla Model 3. This series achieves a balance between low rolling resistance and high grip through a layered tread design, precisely matching the characteristics of electric vehicles.
Overall, the evolution of tire performance has consistently resonated with the development of the automotive industry. Intelligent sensing gives tires the ability to "think," low-carbon technology promotes sustainable mobility, and customized design precisely matches vehicle requirements—these three trends collectively construct a new generation of tire performance systems.
