2026 Toyota 4Runner TRD Pro First Test: Proof That Toyota Knows How to Off-Road
It won’t win on the track, but the TRD Pro 4Runner shows what an off-roading SUV can be.
Pros
- Looks badass
- Extra electric punch
- Rules the dirt
Cons
- Lots of body movement on the road
- Not very efficient for a hybrid
- Expensive
The high-capability off-road SUV space that the 2026 Toyota 4Runner TRD Pro competes in isn’t quite as populated as the similar niche for pickups. But that doesn’t mean an automaker can slouch in this category. Good thing Toyota has excelled in the dirt for so long, then, as it launches a new generation of 4Runner. The latest Tacoma TRD Pro is excellent—as is the new 4Runner Trailhunter—and we recently tested the new 4Runner TRD Pro to see how it stacks up.
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In terms of general specifications, the TRD Pro and Trailhunter are nearly identical. They both use the same 2.4-liter turbocharged i-Force Max I-4 hybrid powertrain. They both also share the same approach, departure, and breakover angles; the same ground clearance figures; and even the same wheels and tires. Even the weight difference is minor—the TRD Pro is just 45 pounds lighter—and due mostly to Trailhunter equipment like the onboard compressor and snorkel.
Speed-Tuned vs. Crawling Suspension
Where these two diverge is in their mission. The Trailhunter is meant to be a rough-and-tumble overlanding solution, and it’s intended to operate at a relaxed pace. The TRD Pro, on the other hand, is a desert runner, gobbling up sandy, dirty miles at speed. Both utilize a front stabilizer disconnect mechanism and 2.5-inch-diameter dampers (with remote reservoirs on the rear), but the TRD Pro swaps the ’Hunter’s Old Man Emu units for a set of Fox Racing QS3s with an internal bypass system.
This gives the TRD Pro’s setup positional damping changes via twin-tube bodies with shimmed bypass bleed ports on the inner sleeve and unshimmed ports for the lower portion. When the shock piston reaches the shimmed ports, the hydraulic oil is allowed to bypass the piston and alters the damping to a much softer compression rate. The fluid also flows back into the inner body via the lower open ports. When the piston is past the shimmed ports, a stiffer damping rate phase occurs as fluid must pass through the piston and its shim stack as usual. During rebound (or droop), the open ports allow the oil to pass freely until further travel sends the oil through the piston and its shim stack, stiffening rebound damping until the bump stops.



