2026 Nissan LEAF S+ vs. Hyundai IONIQ 5 RWD

Keep the range, consumption, and trim attached

At a glance: the LEAF S+ has 303 miles of EPA-estimated range, front-wheel drive, 214 horsepower, 18-inch steel wheels, and a manufacturer-listed 75 kWh usage/net battery capacity. Nissan lists 121 MPGe combined. The model-year-2026 IONIQ 5 RWD in EPA record 49960 has 318 miles, rear-wheel drive, a 168 kW motor, and 30 kWh/100 miles combined. Hyundai associates the long-range RWD models with an 84-kWh marketed battery designation but does not define it as net on the cited page, so it cannot support a usable-capacity comparison.

The 15-mile EPA difference is only a standardized-label comparison. It does not predict a specific winter commute or freeway leg. Speed, weather, elevation, HVAC use, load, wheels, and battery condition change the usable distance. The IONIQ 5 AWD, XRT, 20-inch-wheel, and N variants have different EPA records. The LEAF SV+ is rated at 288 miles and Platinum+ at 259. A dealer quote for one of those versions cannot inherit the 303- or 318-mile figure from this comparison.

Nissan's S+ page publishes MPGe rather than kWh/100 miles. Although MPGe can be converted using EPA's gasoline-energy equivalent, that derived number should not be presented as a direct Nissan kWh label. The cost examples below therefore use named wall-energy assumptions, while the IONIQ 5's 30 kWh/100-mile value remains an EPA label input.

Sources: [1], [3], [4]

Daily driving and home charging: calculate energy, not an empty pack

Most home sessions replace one day's use rather than an empty battery. Assume a household drives 42 miles on a demanding weekday and observes 32 kWh/100 miles from the wall. It must replace 13.44 kWh. At an actual 1.4 kW Level 1 rate, the ideal quotient is 9 hours 36 minutes. At 7.2 kW Level 2, it is about 1 hour 52 minutes. Real sessions can take longer because available power, schedules, thermal management, and charging behavior vary. This example applies equally to both cars and does not claim either will consume exactly 32 kWh/100 miles.

Nissan's official 2026 brochure specifies a 7.2 kW onboard AC charger and approximately 6.5 hours from 20 to 80 percent, not a full charge. That is a manufacturer condition, not a promise for every 240-volt circuit. Hyundai charging time likewise depends on the installed circuit and vehicle equipment. Ask the electrician to document voltage, continuous current, commissioned EVSE setting, and expected power at the car. Then compare that value with the vehicle's AC intake rather than buying around the DC fast-charge peak.

The LEAF uses a driver-side J1772 inlet for AC charging and a passenger-side SAE J3400/NACS inlet for DC fast charging. Nissan says a portable 120/240-volt charging cord is included. The 2026 IONIQ 5 uses a native SAE J3400 inlet and Hyundai describes an included CCS adapter for compatible CCS charging. A household with an existing J1772 wall unit should verify the exact approved connection for the IONIQ 5; the LEAF's separate J1772 AC inlet serves that equipment directly. Cable reach also changes because inlet locations differ.

Recommendation: either can fit a predictable overnight routine when the installed circuit replaces the demanding day's energy. Favor the LEAF's split-port arrangement if an existing J1772 home setup and direct SAE J3400 road charging match your sites. Favor the IONIQ 5's native J3400 approach if its connector and included adapter align better with both current and planned stations. Connector shape alone does not establish network access.

Sources: [1], [2], [4], [6]

Road trips: compare a whole leg and the stated charging window

Nissan's official brochure specifies a 150 kW maximum DC rate and approximately 30 minutes from 20 to 80 percent. Hyundai says the long-range RWD IONIQ 5 can charge from 10 to 80 percent in about 20 minutes on a 350 kW-class DC charger using the included CCS adapter, under its stated conditions. These are different state-of-charge windows, so ten minutes cannot be treated as a controlled head-to-head result. Battery temperature, arrival state of charge, charger output, power sharing, and session interruption can change a real stop.

The published windows do not reveal either full charging curve or guarantee that the required charger is available. Hyundai's shorter stated time covers ten percentage points more, giving the IONIQ 5 the stronger manufacturer claim for repeated fast-charge stops under the cited conditions. The LEAF's 30-minute 20-to-80 figure may still fit households making occasional long trips where meal or rest breaks are already longer.

Plan a named 240-mile freeway leg with a conservative 36 kWh/100 miles wall-energy assumption. The charging energy associated with that distance is 86.4 kWh. That is not battery energy and must not be compared directly with pack capacity; it is useful for estimating purchased electricity across the trip. Start the route planner with actual state of charge and a reserve, then inspect the vehicle-specific energy estimate. Choose a primary station and an independent backup with the correct connector. For the LEAF, confirm that a Tesla Supercharger is open to the vehicle or that a compatible CCS site works with the approved accessory adapter. For the IONIQ 5, verify whether the chosen stop uses native J3400 or the supplied CCS adapter.

A station labeled 350 kW will not force either car to accept that power. Stop quality also includes compatible stall count, access hours, detour, pre-session price, and another reachable site. If road trips are monthly, repeat the route in both directions and in a cold-weather consumption scenario. If they are annual, home fit and daily practicality may outweigh the different manufacturer charging-window claims.

Sources: [2], [4], [5], [6]

Space and ownership costs need household inputs

The LEAF is 173.4 inches long, 71.3 inches wide, and 61.3 inches high. Nissan lists 20 cubic feet of interior cargo volume and 31.8 inches of rear legroom for all three trims. Those figures help screen a garage or parking space but cannot prove that a stroller, wheelchair, dog crate, or rear-facing child seat fits. Bring the real item and place it in the vehicle. Check hatch opening, load height, rear-seat angle, front-seat position, and charging-cable storage.

Do not infer IONIQ 5 cargo superiority from its exterior appearance. Use the exact Hyundai specification method at the dealership and perform the same loading test. Also confirm tire size, replacement-tire quote, insurance, driver-assistance equipment, warranty documents, portable cable, adapter, and connected-service terms. Nissan lists an eight-year/100,000-mile battery warranty on the specifications page; read the warranty booklet for capacity, exclusions, and claim conditions rather than turning the duration into a battery-health guarantee.

For operating cost, use one shared wall-energy assumption before claiming a winner. At 12,000 miles per year and an illustrative 32 kWh/100 miles, either scenario buys 3,840 kWh. At $0.16/kWh, energy is $614.40; at $0.32/kWh, it is $1,228.80. These are arithmetic examples, not national electricity prices or vehicle-specific predictions. A driver can replace 32 with the IONIQ 5's EPA 30 kWh/100 miles for a label-based scenario, but should not assign that value to the LEAF. For the LEAF, use measured history after purchase or an explicitly derived estimate identified as such.

Separate public fast charging by network and site price. Installation, equipment, parking, subscriptions, purchase price, financing, insurance, and maintenance do not belong in the cents-per-kWh multiplication. Compare written dealer quotes with destination charge, exact trim, promised charging equipment, and the same ownership period.

Sources: [1], [3]

Which driver should choose which vehicle?

Choose the LEAF S+ when its 173.4-inch footprint fits a constrained garage, 303-mile EPA estimate covers the household's reserve policy, front-wheel drive matches the requirement, and the split J1772-AC/J3400-DC hardware works with home and road sites. Its published 75 kWh usage/net capacity supports a concrete route-energy input. The LEAF is less compelling for a driver whose decision is dominated by repeated minimum-duration highway stops, because Hyundai publishes a shorter time across a wider state-of-charge window under the cited conditions.

Choose the long-range IONIQ 5 RWD when the 318-mile EPA rating is tied to the offered configuration, rear-wheel drive is acceptable, and regular road trips make Hyundai's stated 20-minute 10-to-80 window useful. Its EPA record supplies a direct 30 kWh/100-mile label input for cost planning. Do not choose it using the 318-mile number if the quote is for AWD, XRT, N, another wheel configuration, or Standard Range.

Before signing, complete one identical checklist for both cars: exact model year and trim; drive layout; wheel and tire specification; EPA range record; labeled or measured energy basis; usable battery only where explicitly supported; AC and DC connector; included and optional adapters; home-circuit compatibility; two recurring routes with reserve; child-seat and cargo test; insurance quote; warranty booklet; connected-services duration; open recalls; destination charge; and every promised accessory in writing. Test seating, visibility, controls, noise, and ride yourself.

The decision is not “303 versus 318.” It is whether the LEAF's compact footprint, supported net-capacity input, and dual-port approach or the IONIQ 5's higher named EPA range and shorter stated fast-charge window solves the household's recurring constraint. Use the route and cost tools with those exact configurations, then replace assumptions with measured energy after delivery.

Sources: [1], [2], [3], [4], [5]