Full Suspension Specifications

SUSPENSION PHILOSOPHY

Suspension

Suspension Philosophy

The suspension system was designed around three primary goals:

  • Maximum traction and predictability while rock crawling
  • Reduced unsprung mass for improved ride quality and suspension response
  • High-speed stability without compromising crawling capability

The geometry, spring rates, damping, and component selection were all chosen to support those goals while maintaining long-term reliability and serviceability.

Unsprung Weight Reduction

Weight Savings

Significant effort was placed on reducing unsprung mass while maintaining structural integrity.

Components

Component Weight Savings

Battle Born Aluminum Wheels – ~50 lb per corner • Wilwood Lightweight Brake System – ~18 lb per corner • 2005+ Unit Bearing Conversion – ~25 lb per corner

TOTAL REDUCTION
UNSPRUNG WEIGHT SAVINGS

Unsprung Weight Reduction

Unsprung Weight Reduction

  • Approximately 276 lb reduction (front)
  • Approximately 276 lb reduction (rear)
  • Compared to previous build configuration

Reducing unsprung weight improves:

  • Suspension response
  • Ride quality
  • Tire control
  • Rebound characteristics
  • High-speed stability

Suspension Geometry

LOWER LINKS
STRENGTH, CLEARANCE & ARTICULATION

Lower Links

Lower Link Design

  • 2-inch DOM tubing with 1/4-inch wall thickness
  • Bent design for increased ground clearance
  • Improved front tire clearance
  • Ballistic Fabrication joints at axle side
  • FK heims at chassis side

The lower links were designed to maximize durability, suspension travel, and obstacle clearance while maintaining precise axle control in demanding off-road conditions.

REAR SUSPENSION
ANTI-SQUAT GEOMETRY

Anti-Squat

Anti-Squat Geometry

Suspension geometry was targeted near 100% anti-squat to optimize climbing performance and traction management.

Benefits include:

  • Maintains forward drive on steep climbs
  • Reduces hopping during traction loss
  • Improves climbing predictability
  • Keeps suspension loading more linear

The result is a rear suspension system that remains stable, predictable, and highly effective in technical climbing situations.

FRONT SUSPENSION
ANTI-DIVE GEOMETRY

Anti-Dive

Anti-Dive Geometry

Front suspension geometry was targeted near 135% anti-dive to improve vehicle control during steep descents and obstacle transitions.

Benefits include:

  • Improved chassis control
  • Better stability during obstacle approach
  • Increased predictability during aggressive crawling

This geometry helps keep the chassis composed during braking and steep descents while maintaining confidence and control in technical terrain.

Upper Links

  • 2-inch DOM tubing

  • Adjustable chassis-side mounting positions

  • Tunable anti-squat and anti-dive geometry

Steering Links

  • FK heims used throughout steering system

Coilovers & Dampening

Coilovers

  • Fox 2.5 coilovers

  • Large-valve configuration

  • Tuned for both crawling and higher-speed terrain

While 2.0 coilovers are typically sufficient for rock crawling, 2.5 coilovers were selected for improved damping control during desert driving and higher-speed suspension events.

Coilover Preparation

  • Built by Accutune

  • Integrated by Suspension Direct

Electronic Suspension Control

SUSPENSION TUNING PROCESS
SUSPENSION GEOMETRY DEVELOPMENT

Suspension Geometry

Suspension Geometry Development

All suspension geometry was modeled and positioned during fabrication using the Triaged Suspension Calculator to optimize overall vehicle performance and tunability.

Key design considerations included:

  • Link placement
  • Roll center behavior
  • Instant center positioning
  • Anti-squat characteristics
  • Anti-dive characteristics

Adjustable upper link brackets allow geometry changes for future tuning and terrain-specific setup adjustments.

SUSPENSION DIRECT ACTIVE SYSTEM
ELECTRONIC SUSPENSION CONTROL

Electronic Suspension

Electronic Suspension Control

The suspension system incorporates an advanced electronic control package designed to continuously optimize ride quality, stability, and traction.

System features include:

  • Onboard computer control
  • Real-time sensor monitoring
  • Dynamic valving adjustments
  • Approximately 500 adjustments per second

By constantly monitoring vehicle inputs and suspension movement, the system automatically adapts damping characteristics to changing terrain and driving conditions.

BENEFITS

Performance Benefits

Performance Benefits

  • Improved ride quality
  • Increased high-speed stability
  • Better terrain adaptability
  • Reduced harshness during aggressive driving
  • Enhanced crawling control

This system allows the vehicle to remain controlled at speed without sacrificing low-speed crawling performance.

Additional Components

REAR SWAY BAR
ARTICULATION CONTROL STRATEGY

Rear Sway Bar

Rear Sway Bar Strategy

The rear sway bar was incorporated primarily to influence articulation behavior rather than traditional body roll control.

Design objectives included:

  • Encouraging faster front articulation
  • Improving stability during angled climbs
  • Increasing predictability on vertical obstacles

This approach helps balance vehicle stability and suspension performance while maintaining excellent crawling characteristics in technical terrain.

PERFORMANCE FOCUS
SUSPENSION DESIGN PHILOSOPHY

Design Philosophy

Suspension Design Philosophy

This suspension package was engineered specifically for the demands of extreme off-road performance while maintaining reliability and long-term serviceability.

Primary design objectives included:

  • Technical rock crawling
  • Steep vertical climbs
  • High-articulation terrain
  • Aggressive off-camber obstacles
  • Controlled high-speed desert driving

Every component was selected to balance:

  • Capability
  • Reliability
  • Serviceability
  • Weight reduction
  • Suspension response