New Edition Monroe 58523 Rear Load Adjusting Shock Absorber And Coil Spring Assembly Chevrolet Blazer, S10, S10 Blazer, Gmc, Isuzu Hombre, Oldsmobile Bravada Family Size [MKFxDsC6]

Monroe 58523 Rear Load Adjusting Shock Absorber and Coil Spring Assembly

Experience the ultimate in rear suspension support with the Monroe 58523 Rear Load Adjusting Shock Absorber and Coil Spring Assembly. This innovative pair is designed to elevate your vehicle's performance, whether you're towing or hauling heavy loads. With its advanced features and durable construction, this assembly is a game-changer for Chevrolet Blazer, S10, S10 Blazer, GMC, Isuzu Hombre, and Oldsmobile Bravada owners.

Key Features and Specifications

The Monroe 58523 Loadlevelers are sold as a pair, ensuring balanced support for your vehicle. These shocks are engineered to combat sagging rear suspensions, providing a robust solution for heavy-duty applications. Key features include:

• Variable Rate Spring: Offers optimal load support and improved ride quality.
• Aluminum Collars: Enhances strength and durability, ensuring long-lasting performance.

With the Monroe 58523 assembly, you can expect up to 1,100 lbs. of additional load carrying capacity, making it an excellent choice for those who frequently tow or haul. This modern technology outperforms traditional airshocks, providing a virtually trouble-free experience with no need for adjustments or airline leaks.

Practical Uses and Benefits

The Monroe 58523 Rear Load Adjusting Shock Absorber and Coil Spring Assembly is perfect for drivers who require enhanced load support and improved ride quality. Its automatic load adjustment feature ensures that your vehicle's suspension spring adjusts itself to the load, providing a smooth and stable ride. While the load carrying ability is limited by vehicle suspension, tires, and transmission, this assembly offers a significant upgrade over old-style airshocks. For even more support, consider pairing this assembly with an Airlift product, or use them together for maximum performance.