Exploring the power and performance of v 8 suv models

Global V8 SUV Market Overview: Performance, Powertrain, and Consumer Segmentation

V8 engines deliver 30–50% higher torque at low RPM compared to turbocharged V6s, translating to superior towing and acceleration without forced induction lag.

Top 5 V8 SUVs by Market Presence and Key Specifications

V8 vs. Turbocharged V6 vs. Electric Powertrains: Performance and Efficiency Trade-offs

1. Torque Delivery and Responsiveness
   V8 engines produce peak torque at lower RPMs (typically 2,500–4,000 RPM) compared to turbocharged V6s (3,000–5,000 RPM), eliminating turbo lag. For example:
   • The Chevrolet Silverado 6.6L V8 delivers 470 lb-ft at 3,600 RPM, while a Ford PowerBoost 3.5L V6 (turbo) peaks at 470 lb-ft but at 3,750 RPM with delayed spool-up.
   • Electric powertrains (e.g., Tesla Model X Plaid) offer instant torque (670 lb-ft from 0 RPM) but lack the mechanical robustness for extreme towing or off-road conditions.
2. Fuel Efficiency and Emissions
   V8 SUVs average 12–18 MPG combined, significantly lower than turbocharged V6s (18–24 MPG) or electric vehicles (100+ MPGe). However, real-world efficiency varies by driving conditions:
   • City Driving: V8s lose 30–40% efficiency due to idle time and stop-and-go cycles.
   • Highway/Towing: V8s outperform turbo V6s in gradeability and sustained load, where turbocharged engines may struggle with heat buildup.
3. Real-World Performance Metrics

   0–60 MPH Acceleration:
   

   Mercedes-AMG GLE 63 S 4MATIC+ (V8): 4.2 sec

   Ford F-150 Raptor R (V8): 4.5 sec

   Tesla Model X Plaid (Electric): 2.6 sec

   Max Towing Capacity:
   

   Chevrolet Silverado 2500HD (V8 Diesel): 22,000 lbs

   Toyota Tundra (V6 Hybrid): 12,000 lbs

   Rivian R1T (Electric): 11,000 lbs (limited by battery cooling)

4. Maintenance and Longevity
   V8 engines require more frequent oil changes (every 5,000–7,500 miles) and higher fuel consumption, increasing total cost of ownership (TCO). Turbocharged V6s and electric powertrains reduce maintenance demands but may sacrifice durability in extreme conditions (e.g., dusty off-roading, extreme heat).

Manufacturer-Specific Drivetrain Configurations and Towing Capabilities

1. Ford (F-Series, Expedition, Mustang Mach-E Hybrid)
   • Drivetrain Options:
     
   • RWD: Standard in Mustang Mach-E GT (hybrid V6), but V8 models (e.g., F-150 Raptor) use RWD or AWD with Torque Vectoring by Tred (rear-bias AWD).
   • 4WD: Ford’s 4WD system (vs. AWD) includes hill descent control and selectable terrain modes, critical for off-roading.
   • Towing Innovations:
     
   • Pro Trailer Backup Assist (automated trailer parking).
   • Max Trailer Tow Package (up to

   Performance & Driving Dynamics of V8 SUVs

   V8-powered SUVs redefine performance benchmarks by combining brute-force output with refined engineering, delivering acceleration, top-speed prowess, and dynamic handling that outpace most smaller vehicles. Their broad torque bands and high-revving capabilities enable rapid acceleration from low RPMs, while advanced chassis systems—such as adaptive suspension and traction control—ensure stability across diverse driving conditions. Below, the analysis dissects key performance metrics, including dyno data for contrasting power outputs, handling characteristics, off-road utility, and the mechanics behind sub-4.5-second 0-60 mph launches.
   

   Dyno Analysis: Horsepower, Torque, and RPM Characteristics of V8 SUVs

   Engine dyno charts reveal the fundamental differences in performance between V8 SUVs with varying power outputs. Three representative models—Ford Expedition 3.5L EcoBoost V6 (400 HP, 550 lb-ft), Chevrolet Tahoe 6.2L V8 (420 HP, 460 lb-ft), and Dodge Durango 6.4L HEMI V8 (485 HP, 470 lb-ft)—illustrate how torque delivery and RPM ranges influence real-world capability.

   Key Data Points:
   

   • Torque Band Width: The Durango’s 6.4L HEMI produces peak torque (470 lb-ft) between 4,000–5,000 RPM, sustaining high output across a broad range, ideal for towing and quick acceleration. In contrast, the Tahoe’s 6.2L V8 peaks at 4,200 RPM but drops off sharply beyond 5,000 RPM, limiting sustained power.
   • Horsepower Curve: The EcoBoost V6 (400 HP) reaches maximum power at 5,500 RPM, whereas the HEMI V8 (485 HP) peaks at 5,300 RPM, demonstrating how V8s maintain higher RPM efficiency for spirited driving.
   • Redline and Revving Potential: The Durango’s HEMI redlines at 6,000 RPM, while the Tahoe’s 6.2L caps at 5,800 RPM, affecting throttle response and downforce generation at high speeds.

   Comparison Table: Dyno Metrics of Selected V8 SUVs
   

   Model	Engine	Peak HP (RPM)	Peak Torque (RPM)	Torque Band (RPM)	Redline (RPM)
   Ford Expedition	3.5L EcoBoost V6	400 @ 5,500	550 @ 3,000	2,000–4,500	6,000
   Chevrolet Tahoe	6.2L V8	420 @ 5,800	460 @ 4,200	3,000–5,000	5,800
   Dodge Durango	6.4L HEMI V8	485 @ 5,300	470 @ 4,000	3,500–5,500	6,000

   Note: Higher torque bands (e.g., Durango’s 3,500–5,500 RPM) correlate with superior towing capacity and off-road recovery, while higher redlines (e.g., 6,000 RPM) enhance top-speed stability and aerodynamic efficiency.
   

   Handling and Stability: V8 SUVs vs. Smaller Vehicles

   V8 SUVs leverage adaptive chassis tuning to mitigate power-induced instability, achieving cornering precision and braking performance comparable to performance sedans. Key differentiators include:

   - Adaptive Damping Systems: Models like the BMW X5 M (600 HP) and Mercedes-Benz GLE63 AMG use electromagnetic damping to adjust stiffness in real-time, reducing body roll by up to 30% compared to conventional SUVs.
   

   • Limited-Slip Differentials (LSD) and Torque Vectoring: The Audi Q7 V8 TDI employs a quattro all-wheel-drive system with torque vectoring, distributing power asymmetrically to improve exit speeds from corners by 15–20%.
   • Brake Bias Optimization: High-performance V8 SUVs (e.g., Cadillac Escalade AWD) feature rear-biased braking to prevent understeer, with carbon-ceramic brakes (e.g., Porsche Cayenne Turbo S) delivering 0-60 mph stopping distances under 120 feet—faster than many sports sedans.

   V8 SUVs achieve cornering grip equivalent to luxury sedans through multi-link suspension geometry and active roll stabilization, while their broad torque bands allow for consistent power delivery without wheelspin, even in aggressive driving scenarios.

   Handling Trade-offs:
   
   • Weight Distribution: Long-wheelbase V8 SUVs (e.g., Chevrolet Suburban) may exhibit slight oversteer due to rear-biased mass, mitigated by electronic stability control (ESC) with 8-millisecond response times.
   • Aerodynamic Downforce: Models like the Land Rover Range Rover SVAutobiography use active rear spoilers to generate 1,200 lbs of downforce at 120 mph, improving high-speed stability.

   Off-Road Capability: V8 Power Bands and Terrain Mastery

   V8 engines excel in off-road conditions due to their low-end torque and high sustained power, enabling:
   
   • Grade Climbing: The Toyota Land Cruiser 5.7L V8 delivers 400 lb-ft at 3,600 RPM, allowing 30°+ incline ascents without downshifting, while its torque converter lockup maintains efficiency.
   • Towing and Recovery: The Jeep Grand Cherokee 6.4L HEMI produces 470 lb-ft at 4,000 RPM, enabling 8,500 lbs of towing capacity and winch-assisted recovery from deep mud via electronic traction control (ETC).
   • Articulation and Suspension Travel: Off-road V8 SUVs (e.g., Ford Expedition MAX) feature 4.5 inches of wheel travel and adaptive air suspension, allowing rock crawling while maintaining high-speed stability.

   Step-by-Step Off-Road Power Application:
   1. Low-Gear Launch: Engaging 1st or 2nd gear at 3,000–4,000 RPM ensures maximum torque delivery (e.g., Land Cruiser’s 400 lb-ft at 3,600 RPM).
   2. Torque Steer Mitigation: Limited-slip differentials (LSD) distribute power evenly, reducing torque steer by up to 40% compared to open differentials.
   3. Winch and Recovery Integration: Electronic locking differentials (ELD) engage automatically when wheelspin exceeds 20%, aiding in self-recovery from soft terrain.
   

   Achieving Sub-4.5-Second 0-60 mph Times: Engineering Breakdown

   V8 SUVs with 0-60 mph under 4.5 seconds (e.g., Dodge Durango SRT 6.4L HEMI, Chevrolet Tahoe SS) employ a multi-faceted approach combining powertrain, aerodynamics, and launch control systems.

   Key Components:
   

   • Gear Ratios:
   • 1st Gear Ratio: Typically 3.50–3.80:1 (e.g., Durango SRT’s 3.62:1), optimizing wheel torque for rapid acceleration.
   • Final Drive Ratio: 3.31–3.73:1 (e.g., Tahoe SS’s 3.73:1) balances top-speed efficiency and launch performance.
   • Launch Control Systems:
   • Traction Management: Multi-stage torque distribution (e.g., Ford’s 3-mode selectable shift) prevents wheelspin by limiting power to slipping wheels.
   • Engine Braking Optimization: Dynamic engine braking (e.g., Audi’s cylinder deactivation) reduces launch lag by 10–15%

   

   Fuel Efficiency & Environmental Impact of V8 SUVs

   The performance and power of V8 engines in SUVs have long been synonymous with acceleration and towing capability, but these attributes come with significant trade-offs in fuel efficiency and environmental impact. As global emissions regulations tighten—particularly under the Corporate Average Fuel Economy (CAFE) standards in the U.S. and Euro 6/7 norms in Europe—manufacturers are compelled to balance raw power with reduced carbon footprints. This section examines the real-world fuel economy disparities between V8, V6, and hybrid SUVs, explores the technological mitigations for emissions, and assesses the broader environmental footprint of V8 powertrains. Additionally, it evaluates alternative fuels as potential solutions to improve efficiency without sacrificing performance.
   

   Real-World Fuel Economy Comparison: V8 vs. V6 vs. Hybrid SUVs

   The fuel efficiency gap between V8, V6, and hybrid SUVs is pronounced, reflecting the inherent trade-offs between power output and thermodynamic efficiency. Below is a comparative table of EPA-rated fuel economy (as of 2023–2024 models) for select V8, V6, and hybrid SUVs, highlighting the disparity in city, highway, and combined mileage. Data is sourced from EPA fuel economy labels and manufacturer specifications, with a focus on mainstream and performance-oriented models.
   

   Model	City MPG	Highway MPG	Combined MPG
   V8 SUVs	14–18	19–24	16–20
   Chevrolet Tahoe (6.2L V8)	14	20	16
   Ford Expedition (3.5L EcoBoost V6 + 3.0L V6 Hybrid)	17 (hybrid)	24 (hybrid)	20 (hybrid)
   Ford Expedition (5.2L V8)	12	17	14
   Dodge Durango (3.6L V6)	19	26	22
   Dodge Durango (5.7L V8)	14	20	16
   Toyota Sequoia (5.7L V8)	14	19	16
   Toyota Sequoia Hybrid (3.5L V6 + Electric Motor)	19	24	21
   Hybrid SUVs	22–30	26–34	24–32
   Toyota Highlander Hybrid (2.5L V4 + Electric Motor)	28	31	29
   Ford Explorer Hybrid (2.3L EcoBoost + Electric Motor)	22	26	24
   Lexus RX 350h (2.5L V6 Hybrid)	30	34	32

   Key Observations:
   
   • V8 SUVs consistently underperform in fuel economy, with combined ratings ranging from 14–20 MPG, primarily due to higher displacement, lower compression ratios, and greater parasitic losses from accessories (e.g., A/C, power steering).
   • V6 SUVs demonstrate a 30–50% improvement in combined MPG (e.g., Dodge Durango V6 at 22 MPG vs. V8 at 16 MPG), leveraging turbocharging and direct injection for efficiency gains.
   • Hybrid SUVs achieve 50–100% better fuel economy than V8 counterparts, with some models (e.g., Lexus RX 350h) exceeding 30 MPG combined. Hybrid systems recapture kinetic energy during braking and optimize engine load, significantly reducing fuel consumption in stop-and-go traffic.

   Emissions Mitigation Technologies in V8 SUVs

   To comply with emissions regulations—such as CAFE standards (52 MPG fleet average by 2026) and Euro 7 (2025)—manufacturers employ a combination of engine calibration refinements, aftertreatment systems, and synthetic lubricants to reduce tailpipe emissions from V8 engines. These technologies address nitrogen oxides (NOₓ), carbon monoxide (CO), hydrocarbons (HC), and particulate matter (PM), while minimizing the performance penalty.
   

   Primary Emissions Challenges in V8 Engines:
   

   Higher NOₓ output due to elevated combustion temperatures in large-displacement engines.

   Increased PM emissions from older V8 designs (pre-2010) lacking diesel-like aftertreatment.

   Oil consumption (up to 1 quart per 1,000 miles in high-performance V8s), contributing to unburned hydrocarbons.

   Key Mitigation Strategies:
   V8 engines incorporate the following systems to reduce emissions while maintaining power output:

   - Exhaust Gas Recirculation (EGR) Systems:
   

   • Function: Routes a portion of exhaust back into the intake manifold to lower combustion temperatures, reducing NOₓ formation.
   • Implementation: Modern V8s (e.g., GM’s 6.2L LT4, Ford’s 5.2L Coyote) use cool EGR to minimize backpressure, which can degrade throttle response.
   • Limitation: EGR fouling from carbon deposits requires frequent maintenance, particularly in flex-fuel V8s.

   - Advanced Catalytic Converters:
   

   • Three-Way Catalytic Converters (TWCs): Oxidize CO and HC while reducing NOₓ in stoichiometric (14.7:1 air-fuel ratio) conditions. V8s with variable valve timing (VVT) or cylinder deactivation (e.g., GM’s Active Fuel Management) improve converter efficiency by optimizing lambda control.
   • Diesel Particulate Filters (DPFs) in Turbocharged V8s: Rare in gasoline V8s but used in turbocharged V8 hybrids (e.g., Ford’s 3.5L EcoBoost V6 + electric motor) to capture soot particles.

   - Synthetic Oil Formulations:
   

   • Low-Ash, High-TCN (Total Base Number) Oils: Reduce engine-out emissions by minimizing sulfur and phosphorus content, which poisons catalytic converters.
   • Example: GM specifies Dexos1 Gen 2 synthetic oil for its 6.2L V8, which improves fuel economy by 1–2% and reduces oil consumption by 30% compared to conventional oils.

   - Cylinder Deactivation:
   

   • Technology: Shuts down half the cylinders under light-load conditions (e.g., cruising) to reduce pumping losses.
   • Example: GM’s Active Fuel Management (AFM) in the 6.2L V8 improves fuel economy by ~10% with minimal power loss.

   - Lean Burn Strategies:
   

   • Function: Operates the engine at lean air-fuel mixtures (16:1–20:1) to reduce fuel consumption, paired with NOₓ adsorber catalysts to capture excess NOₓ.
   • Challenge: Lean burn increases combustion temperatures, risk

   Luxury & High-End V8 SUV Features: Engineering and Consumer Priorities

   Luxury V8 SUVs represent the pinnacle of automotive engineering, blending brute performance with bespoke refinement. These vehicles incorporate proprietary technologies that redefine driving dynamics, acoustic experiences, and adaptive systems tailored for discerning buyers. Below, exclusive features are categorized by their functional impact—interior innovation, safety advancements, and performance modes—while also examining the engineering behind adaptive suspensions, exhaust customization, and the decision-making trade-offs for high-end purchasers.
   

   Exclusive Features of Luxury V8 SUVs

   Luxury V8 SUVs distinguish themselves through features that merge exclusivity with cutting-edge technology. These attributes cater to performance enthusiasts and comfort-oriented buyers alike, often incorporating proprietary systems unavailable in mainstream models.
   
   • Interior Technology
     • Mercedes-AMB GLE 63: Hyperscreen curved OLED display (56-inch diagonal) with 3D visualization, gesture control, and voice-activated "Hey Mercedes" assistant. Integrated rear-seat entertainment with 10.2-inch screens and wireless charging.
     • BMW X5 M: iDrive 8 Professional with 12.3-inch touchscreen, head-up display (HUD) with augmented reality navigation, and adaptive LED lighting with dynamic cornering effects.
     • Audi RS Q8: Virtual Cockpit Plus with 12.3-inch fully digital instrument cluster, 3D rear-seat entertainment with 11.9-inch screens, and "Audi Drive Select" with customizable driving modes (Auto, Comfort, Dynamic, Individual).
     • Common Luxury Features:
       • Massaging seats with 3D contouring and climate control (e.g., BMW’s "Ventilated Seats" with adjustable airflow).
       • Panoramic sunroofs with automated tilt-sliding mechanisms (e.g., Mercedes’ "Magic Sky Control").
       • Ambient lighting with RGB LED strips and adaptive cabin illumination (e.g., Audi’s "Light Guide" in the RS Q8).
       • Wireless Apple CarPlay/Android Auto with over-the-air (OTA) updates.
   • Safety Systems
     • Mercedes-AMG GLE 63: Active Brake Assist with pedestrian detection, blind-spot collision mitigation, and "Drive Pilot" (Level 2 autonomous driving) in select markets. "Pre-Safe Impact" pre-tensions seatbelts and adjusts headrests before a collision.
     • BMW X5 M: "Intelligent Emergency Braking" with cyclist detection, lane-keeping assist with steering intervention, and "Driver Attention Assist" monitoring fatigue via steering behavior and blink rate.
     • Audi RS Q8: "Audi Pre Sense City" with pre-collision braking for pedestrians and cyclists, "Audi Side Assist" with 360-degree camera integration, and "Audi Traffic Jam Assist" for stop-and-go traffic at up to 40 mph.
     • Common Safety Innovations:
       • Adaptive cruise control with full-speed-range dynamic radar (e.g., BMW’s "Adaptive Cruise Control with Stop & Go").
       • 360-degree cameras with bird’s-eye view and parking sensors (e.g., Mercedes’ "Parking Pilot").
       • Automatic emergency call systems with crash sensors (e.g., Audi’s "Audi Connect" with eCall integration).
   • Performance Modes
     • Dynamic Steering:
       • Mercedes-AMG: "AMG Dynamic Select" adjusts steering ratio, throttle response, and brake bias in real time (e.g., "Sport+" mode sharpens steering by 20% for track use).
       • BMW: "Dynamic Steering Control" varies ratio from 14.5:1 (city) to 12.5:1 (sport) via electric power steering.
       • Audi: "Dynamic Steering" with torque-based adjustments (e.g., RS Q8 reduces ratio by 15% in "Dynamic" mode).
     • Active Aerodynamics:
       • Mercedes-AMG: "Active Air Curtains" deploy at high speeds to reduce drag (e.g., GLE 63’s front air curtains extend at 50+ mph).
       • BMW: "Active Rear Wing" on the X5 M adjusts angle based on speed and G-forces (e.g., +200 kg downforce at 87 mph).
       • Audi: "Active Aerodynamics" with deployable spoilers and underbody diffusers (e.g., RS Q8’s rear wing adjusts in 0.1-second increments).
     • Launch Control & Torque Vectoring:
       • Mercedes-AMG: "AMG Launch Control" with 4WD torque distribution and "Torque Vectoring Differential" (rear axle bias up to 60:40).
       • BMW: "Dynamic Damper Control" and "Torque Vectoring by xDrive" (all-wheel-drive models) for agile cornering.
       • Audi: "quattro Torque Vectoring" with rear-wheel individual torque distribution (e.g., 100% to inner wheel in tight turns).

   Adaptive Suspension Systems in Luxury V8 SUVs

   Adaptive suspension systems in high-performance V8 SUVs balance comfort and sportiness through real-time adjustments, leveraging sensor inputs to modify damping, ride height, and spring stiffness. These systems integrate with the vehicle’s dynamic stability control (DSC) and traction management to optimize handling under varying conditions.
   

   Key Sensor Inputs:
   

   Accelerometers: Measure vertical G-forces to detect body roll or pitch.

   Wheel Speed Sensors: Monitor slippage or uneven terrain for traction adjustments.

   Steering Angle Sensors: Predict cornering loads to preemptively stiffen suspension.

   Yaw Rate Sensors: Detect oversteer/understeer for torque vectoring coordination.

   Ride Height Sensors: Adjust air springs dynamically (e.g., lowering for high-speed stability).

   • Air Suspension Systems
     • Mercedes-AMG GLE 63: "AIRMATIC" with electro-pneumatic control adjusts ride height in three modes (Comfort, Sport, Off-Road) and responds to road irregularities via "Body Control Module" (BCM) commands. Air springs compress at 0.1-second intervals to absorb impacts.
     • BMW X5 M: "Adaptive M Suspension" combines air springs with magnetic ride control. Ride height lowers by 1.2 inches in "Sport" mode and raises by 2.4 inches in "Off-Road" mode. The system detects potholes 30 feet ahead via radar and preemptively dampens shocks.
     • Audi RS Q8: "Adaptive Air Suspension" with "quattro Adaptive Damping" uses 32 sensors to adjust damping force 1,000 times per second. Ride height varies between 5.9 inches (high) and 4.7 inches (low) via electro-pneumatic valves.
   • Magnetic Ride Control
     • BMW and Audi employ semi-active magnetic dampers that alter fluid viscosity via electromagnetic fields. These systems reduce body roll by up to 40% in sport modes while maintaining comfort on rough roads.
     • Example: The BMW X5 M’s magnetic dampers generate a force of up to 1,500 N per wheel, compared to 800 N in conventional systems.
   • Integration with Performance Modes
     • Suspension stiffness increases by 30–50% in "Sport+" or

       V8 SUVs remain a testament to the enduring allure of internal combustion engineering, offering a compelling blend of brute force and sophistication in an era dominated by electrification and downsizing trends. While their fuel efficiency and emissions profiles present challenges under increasingly stringent regulations, innovations in alternative fuels and exhaust mitigation technologies continue to extend their viability. For enthusiasts and practical drivers alike, these vehicles deliver an unparalleled driving experience—whether conquering steep grades, hauling heavy loads, or navigating urban landscapes with authority. As the market evolves, the debate over V8 SUVs will persist, not as a relic of the past, but as a benchmark for what internal combustion can achieve when pushed to its limits.

       FAQ

       What Jeep SUV models currently offer a V8 engine?

       Jeep’s only modern SUV with a V8 is the Grand Cherokee (2024), which comes with a 3.6L Pentastar V6 as its top engine—no V8 is offered. Older models (pre-2021) had a 5.7L HEMI V8, but it was discontinued. The Wrangler also never had a V8 SUV option.

       Are there any Lexus SUV models with a V8 engine?

       No, Lexus does not offer any SUVs with a V8 engine. Their largest SUVs—the RX 350/LX 500—use V6 or hybrid powertrains, and the LM luxury SUV (discontinued in 2022) was the last Lexus with a V8, but it was a sedan.

       Which Mercedes-Benz SUV models come with a V8 engine?

       The Mercedes-Benz GLE (2024) offers a 4.0L V8 twin-turbo (GLE 63 S 4MATIC+) as an option, producing 577 hp. The G-Class SUV also has a 5.5L V8 (G 63 AMG) and 6.2L V8 (G 65 AMG). The GLS discontinued its V8 in 2023.

       What V8 SUV models will be available in 2026?

       No major automakers have officially announced 2026 V8 SUVs, but likely candidates include:

       Does BMW offer any SUVs with a V8 engine?

       Yes, the BMW X5 xDrive50i (2024) comes with a 4.4L N63 V8 twin-turbo (523 hp). The X7 xDrive50i also offers the same V8. BMW’s M Performance SUVs (X5 M, X7 M) use twin-turbocharged V8s (4.4L or 4.0L in the M850i). The 7 Series-based X7 is BMW’s largest V8 SUV.

       Are there any Audi SUV models equipped with a V8 engine?

       Audi’s only modern SUV with a V8 is the Audi Q8 e-tron (2024), which offers a 4.0L V8 twin-turbo (Q8 60 TFSI) producing 591 hp. The Audi Q7 previously had a 4.0L V8 (Q7 4.0 TFSI) until 2023, but it was discontinued. Audi focuses on electrification, phasing out combustion V8s.

       • automotive performance
       • fuel efficiency analysis
       • luxury vehicles
       • suv comparison
       • v8 engines

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