ARP Pressure Plate Bolt Kit For Ford Modular 10mm x 1.50 Hex Chromoly
The ARP Pressure Plate Bolt Kit is precision-engineered for optimal performance in Ford Modular engines. This set of high-strength Hex Chromoly bolts is designed to securely fasten the pressure plate to the flywheel, ensuring a robust connection that withstands the rigors of intense automotive applications. By utilizing premium materials and advanced manufacturing techniques, ARP provides a component that not only meets but exceeds the demands of high-performance automotive environments.
These bolts are essential for maintaining the integrity of your pressure plate assembly, which plays a critical role in the clutch system. A reliable clamping force is vital for consistent and effective power transfer from the engine to the transmission. The ARP Pressure Plate Bolt Kit enhances this connection, allowing for improved performance and durability over standard bolts. The Hex design allows for easier installation and removal, contributing to efficient maintenance cycles.
The Chromoly construction of these bolts increases tensile strength and resistance to wear, making them ideal for both street and racing applications. When selecting components for high-stress environments, using ARP products ensures longevity and reliability. The red oxide finish not only provides a sleek appearance but also offers additional protection against corrosion, further enhancing the lifespan of the bolts.
FITMENT:
Designed specifically for Ford Modular engines, this bolt kit fits various applications, ensuring compatibility with many configurations.
Key Features & Benefits
- Constructed from high-strength Hex Chromoly for superior durability.
- Precision-engineered for a secure fitment on pressure plates, enhancing overall clutch performance.
- Includes Hex head for easy installation and removal, facilitating quick maintenance.
- Corrosion-resistant red oxide finish for long-lasting protection.
- Ideal for both street performance and racing applications, guaranteeing reliability in high-stress conditions.
