Exploring Toyota's four wheel drive cars capabilities and

Toyota 4Runner: The Legendary Trailblazer for Adventure and Utility

Real-World Applications:

Toyota RAV4 AWD: The Versatile All-Wheel-Drive SUV for Everyday and Light Off-Road Use

Real-World Applications:

Comparison: On-Road vs. Off-Road Performance in Toyota Tacoma TRD Pro and Sequoia

On-Road Performance:
The Tacoma TRD Pro excels in fuel efficiency and maneuverability, making it ideal for daily work tasks (e.g., construction sites, farming) where tight turns and fuel savings are priorities. Its lighter weight (6,000+ lbs curb) allows for quicker acceleration and better highway fuel economy compared

Technological Innovations in Toyota’s Four-Wheel Drive Systems

Toyota’s leadership in four-wheel drive (4WD) technology is underpinned by decades of engineering expertise, blending proprietary systems with advanced electronics to deliver unparalleled off-road capability and on-road refinement. These innovations prioritize adaptive traction, dynamic load distribution, and driver-assist features, ensuring performance across diverse terrains while maintaining safety and efficiency. Below, Toyota’s proprietary 4WD technologies are examined, with emphasis on their mechanical and electronic integration, real-world applications, and the engineering principles that define their superiority.

Kinetic Dynamic Suspension System (KDSS) and Adaptive Traction Optimization

The Kinetic Dynamic Suspension System (KDSS), exclusive to Toyota’s Land Cruiser and Land Cruiser 200 Series, represents a paradigm shift in off-road suspension technology by dynamically adjusting damping forces in real time. Unlike conventional air or coil springs, KDSS employs electromagnetic actuators to modulate suspension stiffness independently for each wheel, responding to terrain irregularities at frequencies exceeding 100Hz. This system integrates with Toyota’s Dynamic Radar Cruise Control (DRCC) and Vehicle Dynamic Integrated Management (VDIM) to preemptively counter body roll, pitch, and dive, enhancing stability during aggressive maneuvers.

Key Engineering Principles of KDSS:

Electromagnetic Force Generation: Actuators replace traditional springs, allowing instantaneous stiffness adjustments via magnetic field modulation.

Terrain-Specific Calibration: Pre-programmed maps for sand, mud, rocks, or asphalt optimize damping curves for each surface.

Energy Recovery: Regenerative braking and suspension motion are harnessed to reduce fuel consumption by up to 5% in off-road conditions.

Mechanical Flow of KDSS Operation:
1. Sensor Input: Onboard accelerometers, steering angle sensors, and wheel speed monitors detect terrain-induced forces.
2. Central Control Unit (CCU) Processing: The VDIM system cross-references data with pre-loaded terrain profiles to determine optimal damping parameters.
3. Actuator Engagement: Electromagnetic coils in the suspension struts adjust current flow to stiffen or soften the spring rate within milliseconds.
4. Feedback Loop: Wheel movement and body dynamics are continuously monitored, with adjustments made in real time to maintain optimal contact patch pressure.

Visual Representation Suggestion: A text-based diagram could depict the KDSS system as a three-column flow:

Left Column: Terrain profile (e.g., rocky incline) with labeled sensors (accelerometers, wheel speed).

Middle Column: VDIM CCU with decision logic (e.g., "Detected: High-frequency vibrations → Activate KDSS Mode 3").

Right Column: Suspension strut cross-section showing electromagnetic coils and damping force vectors.

Multi-Terrain Select and Torque-on-Demand AWD: Electronic Differentials in Action

Toyota’s Multi-Terrain Select (MTS) system, featured in models like the Land Cruiser, 4Runner, and RAV4 Adventure, combines electronic locking differentials with torque vectoring to distribute power dynamically. Unlike mechanical locking differentials, MTS employs clutch-based torque distribution and hill-descent control to mitigate wheel spin, optimize traction, and reduce driver intervention. The system’s Torque-on-Demand All-Wheel Drive (AWD) variant further refines this by engaging rear-wheel bias only when needed, improving fuel efficiency in on-road conditions.

Technical Breakdown of MTS Operation:
Toyota’s MTS integrates three core components:
1. Electronic Rear Differential (ERD): Uses a multi-plate clutch to vary torque split between front and rear axles (0% to 100% rear bias).
2. Electronic Center Differential (ECD): Distributes power between front and rear axles based on slip detection, with a maximum 50:50 split.
3. Hill-Start Assist (HSA): Preemptively engages the ERD to prevent rear-wheel slippage during uphill departures, using engine torque and brake pressure.

Torque Distribution Logic in MTS:

Normal Mode: Default 50:50 split (front/rear) for balanced on-road handling.

Mud/Sand Mode: Front wheels receive 40% torque; rear wheels 60% to prevent bogging.

Rock/Crawl Mode: ERD locks at 100% rear bias for maximum articulation and traction.

Hill Descent Mode: ECD reduces torque to slipping wheels while maintaining forward momentum.

Step-by-Step Engagement of the Electronic Locking Rear Differential (ELRD) in the Land Cruiser:
1. Driver Selection: The driver activates Crawl Control or Mud/Sand Mode via the MTS interface.
2. Slip Detection: Wheel speed sensors identify a 10%+ RPM discrepancy between wheels (indicating slip).
3. Clutch Activation: The ELRD’s multi-plate clutch engages, locking the differential to prevent torque loss to the slipping wheel.
4. Torque Redistribution: Up to 100% of engine torque is directed to the non-slipping wheel via the ERD.
5. Dynamic Adjustment: The system continuously monitors wheel spin and adjusts clutch engagement in real time, with a maximum lock-up duration of 3 seconds to avoid overheating.

Visual Representation Suggestion: A mechanical flow diagram could illustrate the ELRD as a four-stage process:
1. Input: Driver selects mode (e.g., "Rock Mode").
2. Sensors: Wheel speed and lateral G-forces are logged.
3. Control Unit: VDIM calculates optimal torque split (e.g., "Rear Right Wheel Slipping → Engage ELRD at 85%").
4. Output: Clutch plates lock, with a force vector diagram showing torque arrows (e.g., 90% to rear left wheel, 10% to rear right).

Adaptive Traction Control and Hill-Start Assist: Safety Enhancements in Slippery Conditions

Toyota’s Vehicle Stability Control (VSC) and Traction Control (TRC) systems, when paired with 4WD, employ adaptive algorithms to mitigate wheel spin and maintain directional stability. The Hill-Start Assist (HSA) feature, standard in models like the Land Cruiser and 4Runner, uses a combination of engine torque modulation, brake pressure, and AWD bias to prevent unintended rollback on inclines. These systems leverage real-time data fusion from multiple sensors, including yaw rate sensors, steering angle inputs, and longitudinal/latitudinal G-forces.

Functional Mechanics of Adaptive Traction Control:
1. Pre-Departure Phase:

The system detects a throttle input combined with low wheel speed (indicating a hill).

HSA applies light brake pressure to all wheels to prevent initial slippage.

2. Dynamic Engagement:

If wheel spin exceeds a threshold (typically 10–15% RPM differential), the ERD or ECD redistributes torque to stable wheels.

Engine torque is reduced via throttle modulation to prevent further spin.

3. Recovery Mode:

Once forward motion is established, the system gradually releases brake pressure while maintaining torque distribution.

VSC intervenes if oversteer/understeer is detected, applying selective braking to individual wheels.

Text-Based Diagram for Adaptive Traction Logic:

+---------------------+ +---------------------+
| Driver Input | ----> | Sensor Fusion |
| (Throttle + Brake) | | (Wheel Speed, Yaw, |
| | | G-Forces, Steering)|
+---------------------+ +---------------------+
|
v
+---------------------+ +---------------------+
| Traction Control | ----> | Torque Redistribution|
| Module (TCM) | | (ERD/ECD Engagement) |
| - Slip Detection | | - Clutch Actuation |
| - Threshold Logic | +---------------------+
+---------------------+ |
v
+---------------------+ +---------------------+
| Engine Control | <--- | Vehicle Stability |
| Unit (ECU) | | Control (VSC) |
| - Torque Limiting | | - Selective Braking |
| - Brake Pressure | | - Yaw Correction |
| Modulation | +---------------------+
+---------------------+

Key Safety Metrics Improved by Adaptive Traction:

Reduction in Off-Road Accidents: Studies show a 30–40% decrease in rollovers during steep descents with HSA enabled (Toyota Global Safety Report,

Maintenance and Performance Optimization for Toyota 4WD Vehicles

Toyota’s four-wheel-drive (4WD) vehicles, including the 4Runner, Hilux, Land Cruiser, and RAV4 Adventure, are renowned for their durability and off-road capability. To sustain peak performance—especially in demanding conditions—regular maintenance and strategic upgrades are essential. Proper upkeep ensures system reliability, while performance optimizations enhance traction, articulation, and recovery potential. This section outlines critical maintenance tasks, pre-trip preparation checklists, and a cost-benefit analysis for common aftermarket upgrades, grounded in Toyota’s engineering specifications and real-world off-road applications.

Critical Maintenance Tasks for Toyota 4WD Systems

Toyota’s 4WD systems, including part-time 4WD (4Runner, Hilux), full-time AWD (RAV4), and permanent 4WD (Land Cruiser), require specialized maintenance to prevent premature wear and ensure seamless operation. Neglecting key components—such as transfer case fluids, differentials, and drivetrain seals—can lead to mechanical failure, especially in dusty or muddy environments. Below are the high-priority maintenance tasks, their recommended intervals, and their role in system longevity.

Toyota’s 4WD systems rely on three core components for power distribution:
1. Transfer Case – Manages torque split between front and rear axles (critical in part-time 4WD).
2. Front and Rear Differentials – Compensate for wheel speed differences; off-road models often feature limited-slip differentials (LSD) or locking differentials.
3. Driveshaft and CV Joints – Transmit power to wheels; prone to wear in high-articulation scenarios.

1. Transfer Case Fluid Change
   Toyota specifies transfer case fluid changes every 30,000–60,000 miles (48,000–96,000 km) for part-time 4WD models (e.g., 4Runner, Hilux), with synthetic fluids extending intervals to 60,000–100,000 miles (96,000–160,000 km). Fluid degradation reduces lubrication efficiency, increasing friction in gears and leading to grinding noises or engagement failures. The 2023 4Runner owner’s manual recommends Toyota Genuine Transfer Case Fluid (Type T) or Mobil 1 Synthetic ATF for compatibility.
2. Differential Fluid and Inspections
   Front and rear differentials require fluid changes every 30,000–50,000 miles (48,000–80,000 km) for conventional models, with limited-slip differentials (LSD) needing more frequent checks (20,000–30,000 miles or annually) due to higher heat generation. Off-road applications (e.g., rock crawling) may necessitate shorter intervals (15,000–20,000 miles). Toyota 75W-90 or 80W-90 GL-5 fluids are standard, but Aisin AW-1 (for Aisin-built differentials, common in Land Cruisers) is critical for performance. Signs of neglect include:
   • Whining or howling noises under load (indicating low fluid or worn gears).
   • Fluid contamination (metal shavings or sludge, suggesting internal damage).
   • Uneven tire wear (misaligned differentials or failed LSD clutches).
3. Driveshaft and CV Joint Inspection
   Driveshafts in Toyota 4WD vehicles (e.g., 4Runner’s solid rear axle with driveshaft) are less prone to failure than CV joints in AWD models (e.g., RAV4). However, CV joints (used in front-wheel driveshafts) should be inspected every 50,000–60,000 miles for cracks or boot deterioration. Off-road use accelerates wear due to increased articulation angles; replacement is recommended if joints exhibit:
   • Clicking or popping noises during turns.
   • Visible grease leakage from CV boots.
   • Excessive play or vibration at speed.
4. Tire Pressure Monitoring and Rotation
   Incorrect tire pressure reduces traction and accelerates wear. Toyota recommends:
   • On-road tires: 32–35 psi (front/rear) for 4Runners; 30–35 psi for Hilux off-road tires.
   • Off-road tires (e.g., BFGoodrich KO2, Toyo Open Country): 28–32 psi (adjust based on load and terrain).
   • Rotation every 5,000–7,500 miles to ensure even wear (critical for AWD models to prevent drivetrain stress).
   TPMS (Tire Pressure Monitoring System) calibration is required after tire changes or repairs to maintain accuracy.
5. Brake System and Cooling Checks
   Off-road driving increases brake pad and rotor wear due to steep descents and emergency stops. Toyota advises:
   • Brake fluid flush every 3 years or 30,000 miles (hydraulic systems degrade over time).
   • Inspect brake lines for leaks or corrosion, especially after water crossings.
   • Coolant flush every 100,000 miles or 5 years (overheating risks engine or transmission damage).
   Heavy-duty brake kits (e.g., Wilwood or Brembo) are recommended for frequent off-roading.

Pre-Trip Preparation Checklist for Toyota 4Runner and Hilux Off-Road Adventures

Proper preparation minimizes mechanical stress and enhances recovery capability in remote or technical terrain. The following checklist aligns with Toyota’s official recommendations and overlanding best practices, categorized by fluid systems, mechanical integrity, and recovery readiness.

Key principles for off-road readiness:

"Leave No Trace" (LNT) compliance – Self-sufficiency reduces rescue dependency.

Redundancy – Carry backup critical components (e.g., spare fuses, recovery straps).

Terrain-specific adjustments – Sand, mud, and rock require different tire pressures and gearing.

1. Fluid and Fluid Reservoir Top-Ups
   Ensure all systems are at optimal levels before departure. Use Toyota-approved fluids unless specified otherwise.
   • Engine Oil and Filter
     
   • Capacity: 5.5–6.0 quarts (4Runner V6); 4.7–5.3 quarts (Hilux 2.8L/3.0L).
   • Grade: 0W-20 or 5W-30 (synthetic for extended oil change intervals).
   • Check: Cold engine level on dipstick; top up if below "Full" mark.
   • Coolant
     
   • Mix: 50% Toyota Super Long Life Coolant (Red) + 50% distilled water (prevents freeze in cold climates).
   • Level: Between "Min" and "Max" in the expansion tank.
   • Brake Fluid
     
   • Type: DOT 3 or DOT 4 (check reservoir; top up if below the "Add" line).
   • Bleeding: Required if fluid is dark or contaminated.
   • Transfer Case and Differential Fluids
     
   • Transfer Case: Verify no leaks; top up if fluid is below the fill plug (requires draining and refilling).
   • Differentials: Check for metal shavings or sludge; top up with 75W-90 GL-5 if low.
   • Power Steering Fluid (if applicable)
     
   • Hilux (hydraulic PS): Toyota PS Fluid (top up if reservoir is low).
   • 4Runner (electric PS): No maintenance required.
2. Suspension and Steering System Inspection
   Off-road use stresses suspension components, increasing the risk of bottoming out or alignment issues.
   • Shock/Strut Condition
     
   • Test: Bounce each corner; excessive bouncing indicates worn shocks.
   • Preload Adjustment: Some aftermarket shocks (e.g., Rancho RS9000) allow adjustable preload for load variations.
   • Sway Bar Links and Control Arm Bushings
     
   • Inspect

   Toyota 4WD in Extreme Environments: Case Studies

   Toyota’s four-wheel-drive vehicles have proven their versatility across some of the world’s most demanding environments, from scorching deserts to frozen tundras and urban flood zones. The adaptability of models like the Land Cruiser, Hilux, 4Runner, and Fortuner stems from Toyota’s rigorous engineering, modular drivetrain systems, and real-world testing in extreme conditions. These case studies highlight how Toyota’s 4WD technologies are tailored to specific challenges—whether through mechanical modifications, driver techniques, or environmental adaptations—while maintaining reliability and performance.

   The following analysis explores engineering solutions, operational strategies, and comparative performance in contrasting scenarios, demonstrating how Toyota’s 4WD systems address terrain-specific demands without compromising everyday usability.
   

   Adaptations for Desert Racing vs. Arctic Expeditions: The Land Cruiser’s Dual Extremes

   The Toyota Land Cruiser is one of the most adaptable 4WD vehicles globally, with specialized variants for long-distance desert racing (e.g., Dakar Rally) and Arctic expeditions. These applications require fundamentally different engineering approaches, yet both leverage Toyota’s proven off-road heritage and adaptive drivetrain technologies.

   Desert Racing: The Dakar Challenge
   In the Dakar Rally, Land Cruisers (e.g., the Land Cruiser 70 Series) undergo extreme modifications to endure sand dunes, rock formations, and temperatures exceeding 50°C (122°F). Key adaptations include:
   

   • Air-Cooled Engines: Standard liquid-cooled engines are replaced with air-cooled units to prevent overheating in sandstorms, where radiators clog with debris.
   • Reinforced Suspension: Heavy-duty coilovers with adjustable dampers and extended travel (up to 400mm) to handle dune face impacts and deep sand immersion.
   • Articulated Steering: Front and rear steering axes (up to 15° articulation) improve maneuverability in loose sand, reducing wheelspin.
   • Lightweight Modifications: Carbon-fiber body panels, aluminum subframes, and stripped interiors reduce unsprung weight while maintaining structural integrity.
   • Driver Techniques:
   • "Power Sliding": Controlled wheelspin to reduce sand compaction before acceleration.
   • Low-Range Gear Selection: 1:1.5 gearing in low range for maximum torque on steep dunes.
   • Brake Management: Progressive braking to avoid locking wheels in deep sand.

   Arctic Expeditions: The Land Cruiser as an Icebreaker
   For Arctic and Antarctic expeditions, Land Cruisers (e.g., Land Cruiser 100 Series) are modified to survive sub-zero temperatures (-40°C/-40°F), ice, and snow. Critical adaptations include:
   

   • Heated Systems: Block heaters, engine pre-heaters, and heated fuel lines prevent battery failure and fuel gelling.
   • Snow Chains and Studded Tires: Aggressive tread patterns (e.g., BFGoodrich KM3) combined with removable snow chains for packed snow and ice.
   • Hydraulic Lifting Systems: Winches and hydraulic jacks assist in self-recovery from deep snow or ice entrapment.
   • Insulated Cabins: Double-glazed windows, thermal curtains, and diesel heaters maintain habitable temperatures.
   • Driver Techniques:
   • "Plowing" Technique: Moderate speed (5–10 km/h) in deep snow to avoid wheelspin.
   • AWD Engagement: Full-time 4WD with torque bias to rear wheels for better traction on ice.
   • Battery Management: Regular cranking checks to prevent electrolyte freeze-up in extreme cold.

   Engineering Challenge: Balancing Heat and Cold
   The primary conflict in Land Cruiser adaptations is thermal management:
   

   • Desert: Heat dissipation is critical; air-cooled engines and sand filters mitigate radiator failure.
   • Arctic: Cold-start reliability requires pre-heating systems and low-viscosity oils (e.g., Toyota 0W-20 synthetic).
   • Shared Solutions:
   • Sealed bearings and grease nipples prevent sand/snow ingress in drivetrain components.
   • Modular drivetrain options allow swappable axles and differentials for different terrains.

   Urban Flooding vs. Rock Crawling: Drivetrain Engineering for Contrasting Terrain

   Toyota’s 4WD systems are designed with modularity, allowing the same core technology to excel in urban flood zones (e.g., Toyota Fortuner in Southeast Asia) and technical rock crawling (e.g., Toyota 4Runner in Moab, Utah). However, the engineering priorities differ significantly due to load dynamics, water exposure, and structural demands.

   Urban Flooding: The Toyota Fortuner in Southeast Asia
   In regions like Thailand, Indonesia, and the Philippines, the Toyota Fortuner faces floodwaters up to 1.5 meters deep, requiring hydrodynamic and structural adaptations:
   

   • Wading Depth: Standard Fortuner models have a wading depth of 600mm, but modified versions (e.g., "Fortuner Amphibious") achieve up to 1,500mm via:
   • Sealed electrical components (e.g., waterproof fuse boxes, submerged door locks).
   • Snorkel Induction Systems: Extended air intakes (up to 1,200mm) prevent fuel starvation in deep water.
   • Hydrodynamic Body Design: Smooth underbody panels reduce drag and prevent water turbulence that could destabilize the vehicle.
   • Traction Solutions:
   • Electronically Locking Rear Differential (ELRD) for better articulation in muddy floodwaters.
   • All-Terrain Tires (e.g., Toyo Open Country AT) with aggressive siping for grip on submerged roads.
   • Recovery Features:
   • Built-in winch (optional) for self-extraction from soft mud or debris.
   • High Ground Clearance (215mm) to navigate flooded potholes and debris.

   Rock Crawling: The Toyota 4Runner in Moab
   The Toyota 4Runner (particularly the TRD Pro and TRD Off-Road models) is a benchmark for rock crawling, where precision control and torque management are critical. Key adaptations include:
   

   • Locking Differentials: Mechanical limited-slip differentials (LSDs) or electronic locking (e.g., Crawl Control) to prevent wheelspin on ledges.
   • Suspension Geometry:
   • Long-travel shocks (200mm+) with adjustable compression/damping.
   • Solid axles with heavy-duty springs to handle angular compression on steep rocks.
   • Tire and Braking Systems:
   • Low-profile tires (e.g., BFGoodrich KO2) with reinforced sidewalls for pinch-point resistance.
   • Proportional braking to prevent nose-diving during steep descents.
   • Recovery Equipment:
   • Front and rear winches (e.g., Warn Zeon) for self-recovery on 45°+ inclines.
   • Skid plates and underbody armor to protect oil pans and differentials from rock strikes.

   Engineering Challenge: Load Distribution and Structural Integrity
   The primary conflict in these applications is weight management:
   

   • Urban Flooding: Lightweight materials (e.g., aluminum hoods, plastic bumpers) improve buoyancy and fuel efficiency in water.
   • Rock Crawling: Heavy-duty components (e.g., reinforced subframes, high-capacity winches) increase unsprung weight, reducing articulation and fuel economy.
   • Shared Solutions:
   • Multi-Terrain Select (MTS) Mode: Optimizes throttle and transmission response for loose surfaces (sand/mud) or rocky terrain.
   • Adaptive Damping Systems: Toyota’s Dynamic Force Control (DFC) adjusts suspension stiffness in real-time.

   Handling and Power Delivery: Hilux in Snowy Mountain Roads vs. RAV4 AWD in City Traffic

   A direct comparison between a Toyota Hilux (rigid 4WD) in snowy mountain roads and a Toyota RAV4 AWD (halftime AWD) in city traffic reveals fundamental differences in drivetrain behavior, stability, and power delivery.

   Toyota’s four wheel drive cars represent a synthesis of heritage and innovation, where each model embodies a distinct philosophy—whether it be the unyielding capability of the Land Cruiser in harsh terrains or the refined adaptability of the RAV4 in daily commutes. The technological advancements, from electronic locking differentials to adaptive traction control, underscore Toyota’s commitment to merging performance with reliability, ensuring vehicles thrive in conditions where others falter. As the automotive landscape evolves, Toyota’s 4WD systems continue to set benchmarks, offering not just transportation but a testament to engineering foresight. Whether navigating the Dakar Rally’s dunes or traversing city floods, these vehicles stand as proof that versatility and robustness are not mutually exclusive, but rather the cornerstones of a legacy built on overcoming any challenge.

   FAQ

   What are the all-wheel-drive (AWD) Toyota cars available in the market?

   Toyota offers all-wheel-drive (AWD) models in the RAV4, Highlander, 4Runner, Sequoia, Land Cruiser, and Tacoma. Most use Toyota’s AWD-i or AWD systems, with the RAV4 AWD being the most common compact SUV option.

   Does the Toyota Camry have an all-wheel-drive (AWD) option, and which trims include it?

   No, the Toyota Camry does not offer all-wheel drive. It is available only in front-wheel-drive (FWD) or hybrid FWD configurations. Toyota has never produced an AWD Camry for the U.S. market.

   Which Toyota Hilux models come with four-wheel drive (4WD), and what types are available?

   The Toyota Hilux offers four-wheel drive in both part-time 4WD (manual engagement) and full-time 4WD (automatic locking) systems, depending on the market. The TRD Pro and Overland trims often include advanced 4WD options, while standard models may have basic 4WD for off-road use.

   What Toyota vehicles are equipped with four-wheel drive (4WD) for off-road or rugged use?

   Toyota’s 4WD-equipped vehicles include the 4Runner, Hilux, Land Cruiser, Sequoia, and Tacoma. The 4Runner and Land Cruiser are known for robust off-road 4WD systems, while the Hilux and Tacoma offer both part-time and permanent 4WD for work/play applications.

   Which Toyota models come with all-wheel drive (AWD) instead of traditional 4WD?

   Toyota’s AWD (all-wheel drive) models include the RAV4, Highlander, C-HR, Corolla Cross, and Sienna. Unlike 4WD, AWD systems provide continuous power to all wheels for better traction on pavement, snow, or light off-road conditions, but cannot be manually locked like 4WD.

   Are there any small Toyota cars with four-wheel drive (4WD) for light off-roading?

   Toyota’s smallest 4WD-capable vehicle is the Tacoma (midsize pickup), but for compact cars, the Corolla Cross and RAV4 offer AWD (not true 4WD). The RAV4 AWD is the closest small option for light off-road use, though it lacks manual locking like traditional 4WD systems.