PK 10,PIN,CLEVIS-LONG - OTC Tools and Equipment

The OTC Tools 217183-PK10 Clevis Pin is a professional-grade fastening component designed for reliable performance in demanding automotive and industrial applications. This long clevis pin, supplied in a convenient 10-pack, provides a secure yet flexible connection point for various mechanical linkages and assemblies. Engineered by OTC Tools, a trusted manufacturer in the professional tool market, these pins are essential for technicians requiring durable and easily deployable fasteners for repair and maintenance tasks.

Key Features

• Professional-Grade Construction: Manufactured to meet the rigorous demands of professional mechanics and industrial environments.
• Durable Fastening Solution: Designed to offer robust and dependable connections in applications subject to movement and vibration.
• Facilitates Pivoting Action: Allows for necessary rotation or swiveling between connected components, crucial for dynamic mechanical systems.
• Easy Installation and Removal: Simplifies assembly and disassembly, making it ideal for applications requiring frequent adjustments or servicing.
• Versatile Design: Features a cylindrical shaft with a head on one end and a cross-drilled hole on the other, designed for secure retention with a cotter or split pin.
• Convenient 10-Pack: Ensures a readily available supply for ongoing workshop needs and multiple applications.

Applications

These long clevis pins are invaluable for professional technicians across a spectrum of fields. They are commonly utilized in automotive assemblies such as steering linkages and brake systems, providing critical pivot points for smooth and safe operation. Beyond automotive, the OTC 217183-PK10 clevis pins are suitable for agricultural machinery, construction equipment, and other industrial applications where components need to be securely linked while allowing a degree of movement. They are frequently employed in towing and hitching mechanisms, serving as quick-release or robust attachment points that can absorb lateral stress and withstand significant mechanical loads.