Articles/Powertrain

Ford’s diesel reshuffle: what the V6 shift means for Ranger and Everest

Ford’s Australian MY26.50 Ranger and Everest range has dropped the 2.0-litre bi-turbo diesel. The revised single-turbo remains, while the V6 reaches more variants. Buying the V6 gives you more published engine output; its payload and accessory implications still depend on the exact vehicle. Ranger 2026.50MY, Everest MY2026.50

The single-turbo remains alongside a wider V6 range

The detailed update was announced on 25 November 2025, with December ordering and first deliveries scheduled for mid-2026. Those are announcement and planned delivery dates, not an exact factory cutoff. This record is an archived Ford release republished by Range Ford; the original Ford Media address now redirects elsewhere. Ford Ranger and Everest Updated with More Performance for More People, Enhanced Tech, and Refreshed Design

The current diesel Ranger offers single-turbo XL, Black Edition and rear-drive XLT configurations. V6 availability extends from XL through XLS, Black Edition and XLT to Wolftrak, Tremor, Wildtrak and Platinum. XLS becomes a double cab-chassis V6; diesel Sport disappears. Ford’s specification sheets detail body and drivetrain restrictions. Ranger 2026.50MY

Everest Active replaces Ambiente and Trend. Active and Sport offer single-turbo or V6; Tremor, Platinum and the separately documented Wildtrak use V6. The new single-turbo produces 125 kW and 405 Nm, so it must not be confused with the outgoing bi-turbo in the comparison below. Everest MY2026.50, Ford Everest | Wildtrak 2026.50MY Specifications

The broader Ranger family also includes petrol Raptor, plug-in Hybrid and the separately specified Super Duty. Hybrid keeps the Sport badge: Ford advertises XL, Sport and Wildtrak, with first arrivals expected in Q3 2026. That does not establish an exact customer-delivery date. Ranger 2026.50MY, 2026.50 Ford Ranger Hybrid Lineup, Ranger Super Duty 2026.50MY

Compare the outgoing diesels on an explicit mass basis

This historical Australian MY25.25 comparison uses XLT double-cab pickups with different drivetrains, and Everest Trend versus Sport with different equipment. Neither pair isolates engine weight. Both brochures below are archived official Ford documents hosted by a third party.

Australian MY25.25 diesel comparison: configurations and mass bases differ
SpecificationRanger XLT bi-turboRanger XLT V6Everest Trend bi-turboEverest Sport V6
Australian model yearMY25.25MY25.25MY25.25MY25.25
Body / driven wheelsDouble-cab pickup / part-time 4×4Double-cab pickup / full-time 4WDSeven-seat wagon / full-time 4WDSeven-seat wagon / full-time 4WD
Engine; nominal displacementBi-turbo diesel; 2.0 LTurbo-diesel V6; 3.0 LBi-turbo diesel; 2.0 LTurbo-diesel V6; 3.0 L
Exact displacement / bi-turbo cylinder arrangementNot verifiedExact cc not verifiedNot verifiedExact cc not verified
Maximum power154 kW at 3,750 rpm184 kW at 3,250 rpm154 kW at 3,750 rpm184 kW at 3,250 rpm
Peak torque and full published band500 Nm at 1,750–2,000 rpm600 Nm at 1,750–2,250 rpm500 Nm at 1,750–2,000 rpm600 Nm at 1,750–2,250 rpm
Transmission10-speed automatic10-speed automatic10-speed automatic10-speed automatic
ADR 81/02 combined fuel consumption7.2 L/100 km8.4 L/100 km7.2 L/100 km8.5 L/100 km
Kerb mass: basis described below2,276 kg, maximum options2,349 kg, maximum options2,383 kg, standard equipment2,455 kg, standard equipment
Minimum orderable kerb mass2,209 kg2,233 kgNot separately publishedNot separately published
Actual unladen front-axle massNot published in reviewed sheetNot published in reviewed sheetNot published in reviewed sheetNot published in reviewed sheet
Permitted front-axle maximum1,450 kg1,490 kg1,470 kg1,470 kg
GVM3,230 kg3,280 kg3,100 kg3,150 kg
Calculated payload: GVM − listed kerb3,230 − 2,276 = 954 kg3,280 − 2,349 = 931 kg3,100 − 2,383 = 717 kg3,150 − 2,455 = 695 kg
Calculated payload at minimum kerb3,230 − 2,209 = 1,021 kg3,280 − 2,233 = 1,047 kgNot availableNot available
Ford-published payload954 kg931 kg717 kg703 kg: conflicts with listed mass arithmetic
Maximum braked towing, conditional on specified tow equipment and all limits3,500 kg3,500 kg3,500 kg3,500 kg
Maximum tow-ball download for exact MY25.25 applicationNot verifiedNot verifiedNot verifiedNot verified
GCM6,350 kg6,400 kg6,250 kg6,250 kg
Fuel tank80 L80 L80 L80 L
General-service interval, whichever occurs first12 months / 15,000 km12 months / 15,000 km12 months / 15,000 km12 months / 15,000 km
Advertised eligible general-service maximum, checked 10 September 2026$379 incl. GST$379 incl. GST$379 incl. GST$379 incl. GST
Comparable MY25.25 manufacturer list price before on-road costsNot verifiedNot verifiedNot verifiedNot verified

Vehicle-table sources: Ranger 2025.25MY, pp 27 and 30; Everest 2025.25MY, pp 13 and 16. Service rows: Ford Service Terms & Conditions and Discover the Car Service Price Guide with Ford Australia.

Table qualifications: power is published at a single engine speed, not across a power plateau. Ranger kerb figures represent the heaviest factory-option combination; minimum kerb uses the lightest orderable combination. Everest's kerb definition specifies standard equipment, with options additional; its payload footnote introduces a maximum-kerb qualification. Both kerb definitions include full fuel and exclude occupants and cargo. Neither is a tare-based calculation. Tow ratings require the relevant Genuine Ford towing equipment and simultaneous compliance with other limits. Do not infer a tow-ball limit as a percentage of braked towing capacity.

Service assumptions: the displayed maximum covers eligible first four general services within four years/60,000 km, whichever occurs first, at participating dealers, under the applicable purchase/program conditions. Brake fluid and excluded work are additional. No VIN-specific calculator quote was generated. These are scheduled-service ceilings, not total ownership costs. Newer MY26 pricing and prepaid/promotional offers are separate. Historical list prices and their GST/LCT/dealer-delivery/on-road treatment were not verified; no drive-away figure has been substituted or tax silently converted.

Ranger’s V6 payload is lower on the maximum-options basis but higher on the minimum-kerb basis, because GVM also changes. Choosing the convenient row would mislead a buyer. Everest’s equipment difference prevents an engine-only conclusion, and Ford’s Sport payload does not reconcile with its own kerb/GVM figures; the table preserves that disagreement. Ranger 2025.25MY, Everest 2025.25MY

Actual unladen front-axle mass was not published in these sheets. A higher axle rating does not establish more remaining capacity. Weigh the front and rear axles, preferably individual corners, with the vehicle configured for travel. Do not assign the whole kerb difference to the front axle.

Use measured inputs in vehicle comparison and the GVM calculator. Ball download consumes payload once. For combination arithmetic, coupled vehicle axle mass + trailer axle mass = actual total combination mass. This identity follows from the regulator’s definitions. Adding the trailer’s complete loaded mass to a vehicle reading already carrying the ball counts that load twice. Safe Towing Guide

NVES assesses the supplier’s covered fleet

NVES commenced on 1 January 2025; covered entries began on 1 July. It follows eligible first entries on the Register of Approved Vehicles, not retail-sale dates; later periods are calendar years. Type 1 covers passenger cars and lighter off-road vehicles; Type 2 includes eligible NA/NB1 light goods vehicles and qualifying MC off-road passenger vehicles with body-on-frame construction and recorded towing of at least 3 tonnes. Exact current Everest RAV classifications were not independently retrieved. New Vehicle Efficiency Standard Act 2024

For Type 2 in 2026, the target is 180 + 0.0324 × (designated MIRO − 2,155) g/km, with designated mass in running order clamped between 1,500 and 2,400 kg. MIRO includes a driver and prescribed fuel/equipment allowances; brochure kerb is not interchangeable. Submitting correct MIRO values

The supplier adds recorded CO₂ − individual target across covered vehicles. A negative aggregate earns units; a positive aggregate needs balancing. Units can be earned, traded and extinguished; they expire after three years. A below-target PHEV improves the total, but proving cancellation of V6 entries requires their quantities, regulated CO₂, MIRO and period, plus the rest of the fleet. Regulated CO₂ can differ from brochure values. Calculating IEVs, FEVs and issuing units, Submitting correct carbon dioxide emissions values

For the 2025 period, units must be extinguished by 31 December 2027 before final reconciliation in February 2028. An unresolved positive final value can attract a $50-per-unit infringement notice; the court maximum is $100 per unit. Indexation begins in 2029. This is a fleet obligation, not a showroom engine tax. How infringement notices and penalties are applied, New Vehicle Efficiency Standard Act 2024

Ford Motor Company of Australia Pty Ltd accrued 426,261 units across 38,541 covered vehicles in July–December 2025. That verified result establishes neither a PHEV contribution nor a 2026 outcome. Interim emissions value by regulated entity

The evidence points to global engine economics

Ford’s primary explanation for wider V6 availability is giving more customers access to the performance and refinement they value. For the specific bi-turbo deletion, Ford did not state a reason in the primary material reviewed. Updated 2026 Ford Ranger Lineup Detailed

There is a useful attributed explanation in secondary reporting. Carsales quotes Ford product communications manager Ben Nightingale linking the decision to tighter global emissions controls, development costs and consolidating the four-cylinder diesel across commercial vehicles. The report is identified because this explanation was not found in a Ford-issued document. It supports global engine consolidation more strongly than an Australian NVES theory. Ford retires bi-turbo Ranger and Everest as Transit engine takes over

Fleet mix has a directly supported mathematical effect. Customer preference has Ford’s stated support for expanding V6 access, but no verified engine-sales share here. Sales volumes as the cause remain unproven; a higher product margin is speculation without cost data. Broader production simplification is plausible, while the reported shared-engine development rationale has attributed support. None establishes NVES as the cause.

Owner opinion: living with a 3.0-litre V6 Everest

Owner observation, supplied 10 September 2026; edited for clarity. My Everest is a 2025.5 Sport V6 with 12,000 km on the odometer. I report original 18-inch alloy wheels and a narrow ARB BASE Rack. My use is long highway runs, city driving and occasional country driving. I am preparing for touring; I have not done a full touring trip yet.

I report 9.5–10 L/100 km. My towing includes a light ERDE Daxara 168 and boat or box trailers up to around 1–1.5 tonnes. I moved from a 2014 Mazda CX-9 Luxury to the V6 Everest. The 2.0-litre I test-drove lacked the response I wanted for my driving style. I have no sustained ownership or touring experience with it.

Evidence limits: fuel measurement method, tyre dimensions, measured trailer/axle masses and the test vehicle’s exact engine version were not supplied. These observations cannot establish a controlled ADR comparison or heavy-caravan performance.

The V6’s higher torque and broader published peak band establish an output advantage. They do not measure hill-climbing speed, gear hunting, engine braking or temperatures with a particular caravan. Those require comparable loads, gearing, road conditions and observations; comparative sustained-load thermal headroom and longevity remain unverified. Everest 2025.25MY

The bi-turbo retains a reasonable use case for lighter touring and towing where the owner finds its response adequate. That is a conditional judgement, not an instrumented equivalence claim. Its lower published kerb mass and ADR consumption are genuine advantages in these configurations. Original comparable purchase-price savings remain unverified. Resale also remains unresolved: no completed-sales dataset supports a V6 premium. Ranger 2025.25MY, Everest 2025.25MY

Bar work and batteries need an application check

TJM’s 070SB13N21Y Outback bar lists both bi-turbo and V6 Ranger applications. Its approximately 64.7 kg net added weight excludes accessories and is not a measured front-axle increase. The later manual has Everest-specific trimming and trim-specific supports: shared hardware can require different installation. Historical fitment does not automatically cover every new special edition, Hybrid or Super Duty. 070SB13N21Y Fitting Instructions, TJM Outback Bull Bar - Ford Ranger 06/22 - On

TJM specifies a winch frame in the 42.3 kN nominal pull class (its 9,500 lb rating; calculated: 9,500 × 4.44822 ÷ 1,000), with named compatible winches. TJM Outback Bull Bar - Ford Ranger 06/22 - On The installation manual requires retained air-guide clearance, appropriate radar alignment and sensor checks. The product sheet’s airbag/ADR statements are manufacturer declarations for the specified application, not evidence of independent crash testing reviewed here. 070SB13N21Y Fitting Instructions

REDARC’s BCDCMB-112 charger bracket specifies Everest V6 only. It locates the charger ahead of the radiator for an engine-bay auxiliary-battery installation. That is a particular bracket restriction, not proof that a bi-turbo Everest cannot have dual batteries. Battery-tray eligibility needs its own check. BCDCMB-112 Mounting Bracket for Selected REDARC BCDC Battery Chargers

Piranha’s BTFR-E22 tray separately lists both Ranger diesel engines in a driver-side middle underbonnet position, excluding Raptor. Its detailed listing does not resolve Everest engine eligibility. Battery Tray To Suit FORD RANGER/EVEREST 2022 Onwards (Next GEN) & VW AMAROK NF 2022+

Compare exact applications in parts comparison, then record the build in Garage. The bull-bar guide provides the wider planning context.

Select suspension from the actual load

TJM’s Ranger front-suspension instructions vary spring selection and seat settings by added load and engine. The badge alone is insufficient. Measure permanent accessory load and front/corner distribution; total wheel-scale mass is not the same as sprung corner mass. 2022 Ranger “Rugged” Fitting Instructions - Front, The Effect of Weight on a Vehicle – Handling Explained

Use the applicable GVM-upgrade approval for its axle limits. A GVM upgrade does not automatically raise every axle rating, GCM or towing capacity; WA’s regulator expressly separates those approvals. GVM and GCM FAQs Work through the suspension, GVM and payload and towing material with those measured inputs.

Put a price on the fuel difference

An illustrative annual fuel-cost difference is distance ÷ 100 × consumption difference × fuel price. Assuming 20,000 km and $2/L, the Ranger comparison gives 20,000 ÷ 100 × (8.4 − 7.2) × $2 = $480; Everest gives 20,000 ÷ 100 × (8.5 − 7.2) × $2 = $520. These are derived ADR-based scenarios, not pump-price forecasts or towing logs. Ranger 2025.25MY, Everest 2025.25MY

What this means for you

The V6 suits buyers who value extra available output under load and accept the actual vehicle’s fuel and weight trade-offs. The bi-turbo remains worth considering where its performance meets the job and the specific vehicle offers useful weight or purchase-cost savings. Choose from verified configuration limits and measured loads; neither engine wins every build.

Sources

All accessed 10 September 2026. Australian market unless qualified. The Sources list identifies applicability and evidence limitations. Owner observations were supplied directly for this article on that date and are labelled separately from published specifications.

Not verified

  • Exact MY25.25 engine displacement in cc and bi-turbo cylinder arrangement from an Australian primary record; nominal engine labels only are shown.
  • Actual unladen front-axle mass or engine-only front/kerb mass difference; no owner axle/corner readings supplied.
  • Exact MY25.25 tow-ball maximum for the four comparators. A percentage of towing capacity is not evidence.
  • MY25.25 manufacturer list prices and their complete tax/dealer-delivery/on-road basis; no engine-only price premium or saving established.
  • Everest Sport’s published 703 kg payload versus 695 kg calculated from its listed masses; Ford clarification not obtained. Exact factory-option mass of any individual vehicle is also unknown.
  • Exact final bi-turbo production date, first MY26.50 customer-delivery days, dealer-stock exhaustion and present stock/order availability of each limited edition. Announcement, scheduled arrival and current advertising are distinguished.
  • Ford-issued primary explanation for the specific bi-turbo deletion. The global emissions/development/consolidation explanation is attributed secondary reporting; NVES causation is not established.
  • Engine-level sales volumes, customer-preference shares, margins, savings from production simplification and their causal role.
  • Exact current per-variant RAV class, MIRO and regulated CO₂; PHEV/V6 balancing ratio; attribution of Ford’s 2025 result; final 2026 result; future indexed penalty amounts. Super Duty’s exact NVES exemption status is not asserted.
  • Matched towing, gradient, shift, engine-braking, ambient-temperature, coolant/oil/transmission-temperature, fan and derating observations. Comparative thermal headroom or longevity is not established by engine displacement.
  • Owner fuel measurement method/logs and measurement distance, exact tyre dimensions, verified fitted rack mass and actual trailer/axle readings. The owner reports 9.5–10 L/100 km; this is not a controlled ADR comparison. ADR-based fuel-cost examples remain scenarios.
  • Achieved resale/trade-in evidence and a defensible V6 resale premium; advertised asking prices have not been used as achieved prices.
  • Specific owner spring/upgrade selection without measured constant loads, corner distribution and application/approval data. Wheel-scale mass must not be called sprung mass.
  • Universal current-year accessory compatibility from older “2022 onward” documents; separate confirmation required for changed trims, Raptor, Hybrid and Super Duty. REDARC’s Everest V6-only bracket listing does not settle other systems.
  • Complete engine/trim eligibility for representative battery trays; supplier pages/manuals reviewed do not resolve every application. No general bi-turbo dual-battery incompatibility established.
  • Comparative engine cooling after bar/winch/battery installation, exact net fitted weight of the owner’s complete setup, and independent crash/ADR reports beyond manufacturer declarations.
  • Exact version of the owner’s 2.0-litre test vehicle, test conditions and a matched towing comparison. The supplied observations support a personal preference only. The owner selected member-only access; external publication remains unauthorised.
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Written by Josh for FitFourby. If a source is missing or a claim needs correcting, tell us and we'll review it.