16in Coil Over Barrel 105# Spring

The 16in Coil Over Barrel 105# Spring by LANDRUM SPRINGS is a critical suspension component engineered for tactical and military applications where precision handling and consistent performance are non-negotiable. Built for operators who demand reliability under high-stress conditions, this coil-over spring system supports vehicles equipped with advanced shock absorber packages and requires precise load matching for optimal ride control. Whether deployed in law enforcement pursuit operations, military logistics transport, or specialized tactical vehicle configurations, this spring maintains predictable suspension geometry and load distribution across varied terrain and operational demands.

Rated at 105 pounds per inch of compression, this 16-inch coil-over spring delivers the stiffness required for vehicles operating at or near gross vehicle weight rating while maintaining consistent suspension travel. The coil design minimizes harmonics and resonance that can compromise vehicle control, and the barrel configuration allows seamless integration with modern dampening systems. Landrum Springs' engineering ensures minimal variance in spring rate across the compression range, preventing the progressive sag and handling degradation that occurs with inferior or worn suspension components. At 5.71 lbs, the spring's weight distribution contributes to balanced suspension kinematics without introducing excessive unsprung mass penalties.

This spring is ideal for platform-specific builds requiring OEM or upgrade suspension architecture—particularly vehicles configured for tactical response, emergency services, or heavy-duty field operations. Proper installation requires verification of vehicle load rating and existing spring rate compatibility; pairing with correctly-valved shock absorbers ensures the suspension system functions as designed. Technicians and fleet operators should confirm barrel diameter and mounting interface alignment before installation to guarantee seamless coil-over integration and sustained performance under demanding operational cycles.