M3x45mm 304 Stainless Steel Push Rod Connector Double End Threaded Rod for RC Models, Corrosion‑Resistant, Pack of 2

304 stainless steel double end thread push rods for RC models and DIY projects Overview These double end thread stud push rods are made from 304 stainless steel for durable, corrosion resistant connections in remote control models and small mechanical projects. Precision M3 threads and a slim 2.6 mm body make them suitable for micro servos, linkages, shafts, and other tight spaces. Key features Material: 304 stainless steel for hardness, low abrasion, and strong rust resistance Size: total length 45 mm (1.77 inch); body diameter 2.6 mm Thread: M3 with 10 mm (0.39 inch) threaded length on each end Precision machining: deep, smooth threads that resist stripping and deformation Finish: silver tone, smooth surface for easy installation and reuse Package: 2 pieces per pack Benefits Reliable connections: firm, precise M3 threads provide secure fastening in linkages and shaft fittings Long lasting: hardness and low wear keep parts functioning after repeated use Easy to work with: can be slightly bent to match desired angles for custom linkages Low maintenance: corrosion resistance reduces the need for frequent replacement Compatibility and common applications Remote control airplanes: pushrod for control surfaces and micro servo linkages RC helicopters and drones: small link rods for cyclic and tail control assemblies RC cars and boats: gear shaft and motor shaft linkages, short support shafts DIY robotics and model builds: pivots, couplers, and custom mechanical connectors How to use Thread into compatible M3 nuts, clevises, or control horns and secure with appropriate hardware. Slightly bend the rod where needed to align linkages; the steel maintains strength while allowing small adjustments. Check thread engagement and tighten to recommended torque for your model to avoid loosening during operation. Notes Slight color variation between the actual item and product images may occur. Allow for small dimensional variations due to manual measurement.