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How can air increase an Electric Vehicle’s range?
The passenger fleet is evolving beyond private-owned Internal Combustion-Engine vehicles.
Electric vehicles are heavier, create greater torque and are more demanding on tires. What’s more, with longer maintenance intervals anticipated, air pressure will be checked and adjusted less frequently. This requires tire manufacturers to build a stronger, more durable product, addressing the needs of long-lasting performance, durability and energy efficiency.
Weight matters.
The batteries that power electric vehicles weigh more than gas-powered engines. This added weight bears heavily on the tires, creating greater friction between the road and the tire, or rolling resistance. A tire’s rolling resistance is critical to energy efficiency as more friction creates a power drain on the batteries and an increase in the tire internal temperature, resulting in high energy consumption and decreased vehicle range.
Optimal air pressure -> low rolling resistance = maximum EV battery range
Good air retention means low Inflation Pressure Loss Rate (IPLR), which measures the air a tire loses per month and, when it comes to innerliners, it varies widely depending on the compound composition and gauge. The lower, the better. Low IPLR can minimize the “in-use” rolling resistance and maximize the EV driving range. This can be achieved by designing efficient innerliner compounds with Exxon™ halobutyl rubber.
Evolving trends in fleet efficiency lead back to the basics of tire pressure
With the advancements in electric vehicles and alternative drive trains, first of its kind tests on EV’s tires air retention (over a longer period of time) demonstrated benefit for tire life.
Inflation Pressure Loss Rate (IPLR). IPLR measures the percentage of the air the tire loses per month. Did you know the higher the IPLR, the more energy a vehicle consumes?