Enhance your robotics projects with this high-quality Aluminum Standoff Kit, designed to provide reliable support and precise connections in various mechanical assemblies. Engineered for durability and accuracy, each standoff features dual female M4 x 0.7mm threads, ensuring a secure and stable fit that resists loosening during operation. Ideal for use with idlers, bearings, or as shafts, these standoffs effectively extend and reinforce connections between components. Key Features: · Premium Aluminum Construction: Crafted from high-strength aluminum, these standoffs offer excellent ductility and wear resistance for long-lasting performance in demanding robotics applications. · Dual Female M4 x 0.7mm Threads: Both ends are threaded with standard M4 x 0.7mm female screw holes, providing precise and reliable connections that are not prone to falling off. · Optimal Length and Diameter: Measuring approximately 38mm (1.5 inches) in length and 6mm (0.2 inches) in outer diameter, these pillars extend connections securely while maintaining compact dimensions suitable for tight assemblies. · Versatile Application: Perfectly suited as supporting accessories in robotics, they can be installed with idler wheels, bearings, or used as shafts to streamline assembly and enhance mechanical stability. · Complete Kit of 4 Pieces: Includes four aluminum standoffs to facilitate multiple connections and easy replacements, offering excellent convenience and flexibility for various projects. Specifications: · Item Type: Standoff · Model: 3501-0006-0380 · Material: Aluminum · Screw Hole Size: M4 x 0.7mm (female threads) · Outer Diameter: Approx. 6mm / 0.2in · Length: Approx. 38mm / 1.5in · Application: Robotics accessories for supporting and connecting components such as idler wheels, bearings, or shafts. Package Includes: · 4 x Aluminum Standoffs This Aluminum Standoff Kit is an essential accessory for robotics enthusiasts and professionals seeking dependable and precise support components. Its robust construction and standardized threading ensure seamless integration into your mechanical systems, improving overall stability and functionality.