2026 Hyundai Ioniq 9: Tech Deep Dive and First Winter Drive!
The nearly yearlong wait for Hyundai’s pixeltastic 3-row electric SUV pays off in battery capacity, charging tech, HVAC efficiency, and more.The Kia EV9 Concept and its sibling rival, then simply called the Hyundai SEVEN Concept, both debuted at the 2021 Los Angeles Auto Show. But unlike their ICE alter egos, the simultaneously released Kia Telluride and Hyundai Palisade, Hyundai held its three-row EV SUVs back a bit to make time for some important differentiation and revisions. And although their gas-swilling siblings’ dimensions and specifications vary by mere gnats’ whiskers, the Hyundai Ioniq 9—the name gained two digits in the transition to production—and Kia EV9 are more meaningfully differentiated, both on and beneath their highly individual (and attractive) skins.
0:00 / 0:00
Bigger, More Luxurious
Outside, the Ioniq 9 measures 1.8 inches longer on a 1.2-inch-stretched wheelbase; it’s also 1.6 inches taller and 0.1 inch wider. Inside are 2.1 inches of added middle-row headroom and 0.7 inch more third-row legroom, while squaring off the concept’s roofline (not to mention ditching its L-shaped rear lounge seating) helps the Ioniq 9 deliver 3.2 cubic feet more cargo space aft of the middle row and 1.7 cubes more in the way back.
Yes, the seating is entirely conventional—we trust you weren’t really expecting rear-hinged coach-style doors either—and we’re also not getting the swiveling second-row captain’s chair option offered in Korea. As a consolation, reclining comfort seats with footrests like the ones offered on the Kia Carnival minivan are in the plan for the first two rows, as is a standard middle-row bench. Despite the more conventional silhouette, the Ioniq 9’s claimed drag coefficient is an impressive 0.269.
Better Battery
The battery pack is 8.5-percent more energy dense and carries 110.3-kWh of usable energy—a 10.5-percent increase over the larger of the two EV9 battery packs, which holds 99.8 kWh. Tweaks to the battery chemistry and a new current-mapping strategy that more precisely balances instantaneous charging current to individual modules based on their temperature, voltage, state-of-charge, etc., help maximize range, especially in cold conditions where usable capacity is as much as 10-percent higher than similarly sized competitor batteries.
A sheath heater (a series of resistance heaters inside pipes that warm the battery coolant) is used to precondition the battery pack to the ideal charging temperature of 70 degrees Fahrenheit. This happens automatically when navigating to a charger, or the driver can manually activate it via the central screen if, say, they prefer using smartphone navigation.
In extreme cold, it will also kick on as soon as a charging cord is connected. This reduces the time it takes to charge a completely dead battery at subzero temperatures by as much as 50 percent relative to an unheated Tesla battery. (Remember those frozen Teslas in Chicago last winter?) At optimal temperatures, charging from 10 to 80 percent takes 24 minutes, with charging power maxing out at 232 kW and maintaining an average of 201 kW.




