Toyota Allion T260: common faults & what to check

You're looking at the T260

3 engine variants are documented for this generation. Pick yours to narrow further, or keep reading for the generation as a whole.

2007–2021T260 Selected2007–2021T2601.5 petrolPetrolDocumented issues7 knownSee faults & what to checkKickTyres illustration, not a photograph.

2007–2021T260 Selected2007–2021T2601.8 petrolPetrolDocumented issues7 knownSee faults & what to checkKickTyres illustration, not a photograph.

2007–2021T260 Selected2007–2021T2602.0 petrolPetrolDocumented issues6 knownSee faults & what to checkKickTyres illustration, not a photograph.

Now narrow it to the engine

A 1.8 and a 2.4 of the same car do not fail the same way, so the faults below narrow to the engine as well as the year. Free, no account needed.

Start your free check on this Toyota Allion

No plate needed. You get the risk score, the buyer's checklist and the guided inspection for the exact car you picked above — not the whole nameplate.

The checks worth doing on a Toyota Allion before you hand over any money. Every documented fault is listed below, each with its own page.

• Serious issue

  Visually inspect the ball joint boot for cracks or grease leakage.

  See why

  Front Lower Control Arm Ball Joint Failure

  The front lower control arm ball joints on both ZZT240 and ZRT260 Allion are a documented wear item that degrades at relatively low mileage on Australian roads. Failed ball joints cause steering vagueness and clunking over bumps. In a severely worn state the joint can separate from the control arm, creating a safety-critical loss of steering control. Roadworthy inspection failures for front ball joint play are commonly reported on imported Allion vehicles.

  What you would notice

  • Clunking or knocking from the front suspension over bumps
  • Vague or imprecise steering
  • Uneven or premature front tyre wear
  • Vehicle pulling to one side on a flat road

  Typically ≈A$370–830 to put right.

• Costly issue

  Inspect each lateral link bush with a bright torch for cracking, splitting, or extrusion of rubber from the metal sleeve.

  See why

  Rear Suspension Lateral Link Bush Collapse

  The rear multi-link suspension on the ZRT260 uses rubber-bonded lateral link bushes to control toe and camber geometry. These bushes harden and crack with age, a process accelerated in vehicles exposed to ozone and UV after importation to Australia from the controlled-temperature storage common in Japanese auction yards. Bush collapse allows the rear wheel to move in toe during cornering and braking, which manifests as rear instability and tyre scrub. Complete disintegration of the outer rubber layer results in metal-to-metal contact, producing a loud clunking noise and roadworthy rejection.

  What you would notice

  • Clunking or thumping from the rear of the vehicle over bumps, expansion joints, or rough surfaces
  • Rear-end instability or a feeling of the rear stepping out during cornering or lane changes
  • Rapid inner-edge wear on rear tyres indicating toe change under cornering load

  Typically ≈A$410–870 to put right.

• Costly issue

  After a 10-minute drive, compare front wheel temperatures by carefully touching each wheel centre — uneven heat indicates a dragging caliper.

  See why

  Front Brake Caliper Guide Pin Seizure

  The front brake calipers on the ZRT260 use sliding guide pins to allow the caliper body to float and apply even pad pressure across both inner and outer brake pads. The guide pins are protected by rubber boots that harden, crack, and allow moisture ingress, after which the pins corrode and seize in their bores. A seized guide pin prevents the caliper from retracting fully after braking, causing the outboard or inboard pad to drag constantly against the rotor. This produces rapid and uneven pad wear, rotor heat damage, and brake pull — all of which are a roadworthy failure in Australia.

  What you would notice

  • Vehicle pulls to one side under braking, particularly pulling toward the side with the seized caliper
  • One front brake pad wearing significantly faster than its pair, or faster than the opposite side
  • Brake judder or vibration through the pedal and steering wheel when braking from speed, caused by heat-warped rotors

  Typically ≈A$200–510 to put right.

• Costly issue

  Take a torch and phone camera and get down at each corner: photograph the sills, floor pan, rear beam/subframe and suspension mounting points.

  See why

  Underbody and subframe rust on imports from Japanese snow prefectures

  The Allion was never sold new in Australia, so every example is a JDM import, and Japanese-market cars carry no factory underseal because Japan's roads are mostly salt-free — except in snow prefectures, where heavy de-icing salt eats unprotected floors, sills, subframes, brake and fuel lines. Japanese auction grades barely reflect underbody condition, so a tidy-looking Allion can hide serious corrosion that will fail a roadworthy. Import guides for Australian buyers specifically warn to check sills, wheel arches and the undercarriage before purchase. Surface rust is treatable; perforated sills or crusty subframes mean structural repair bills.

  What you would notice

  • Flaky brown scale on the exhaust, subframes or floor pan visible from under the car
  • Bubbling paint along the sills or rear wheel arches
  • Crusty, swollen brake or fuel lines underneath
  • Rust noted on a previous roadworthy checksheet

  Typically ≈A$460–2,760 to put right.

Toyota Allion service schedule

What falls due, and at what distance, for each generation of the Toyota Allion. These are the model’s intervals — the car’s own service book is the only thing that can tell you what has actually been done to it.

Other Toyota models