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Has the typically shaped head (Tapered) and can be characterized by low cost-availability and a wealth of variations
[ ! ]Note the strength of under-head part.
[ ! ]Please confirm pilot hole depth on Holes may go through.
* The tightening torque (ref. value) for hardened products is strength class 8.8

Frequently asked questions about this product (FAQ)
1. Will the positioning pins rust? If so, are there any measures to prevent it?
Positioning pins without surface treatment can rust. It is recommended to regularly apply rust preventive oil for maintenance or purchase positioning pins with surface treatment, which can prevent rust in normal atmospheric environments. Please refer to this for details
2. Why is there a undercut in the neck of the positioning pin?
Because of its high coaxiality, the neck also needs to be ground. The neck grinding process requires a back groove to ensure that the rib of the positioning pin does not produce an R angle.
3. Can shapes and sizes beyond the specifications recorded in the catalog be customized?
Can be customized with special attention. However, please provide drawings and have certain requirements for quantity when customizing. Details can be consulted jennyguo@fazcwj.com
4. Is a full inspection conducted during the quality management of positioning pins?
Strictly inspect each process link. And conduct a full inspection of the main process steps. Conduct a full inspection upon final shipment.
In precision fixture design and machining setups, managing lateral forces without compromising workpiece positioning is a daily reality on the shop floor. Relying on standard detent components for lateral workholding often leads to pin binding, premature wear, and workpiece deflection.
Mold assembly precision directly dictates manufacturing throughput. Minor component failures cause catastrophic tool damage, unacceptable scrap rates, and severe production bottlenecks. Engineers face constant challenges on the floor.
Quick positioning, alignment, indexing, and securing components in sheet metal or thin-walled enclosures presents a strict mechanical limitation. You face insufficient material thickness to support standard threaded hardware.
Specifying the wrong spring plunger often results in micro-misalignments, premature component wear, or catastrophic part ejection failures during high-speed machining and automation cycles.
In precision engineering, the reliability of positioning, indexing, and holding mechanisms depends entirely on the point of contact between the plunger and the workpiece.
Component failure in indexing, positioning, or ejecting mechanisms frequently traces back to a single engineering oversight: specifying the wrong material for the operating environment.
The relentless demand for miniaturization in medical devices, aerospace components, and consumer electronics requires mechanical hardware that fits microscopic footprints without sacrificing tactile feedback, holding force, or the ability to facilitate easy positioning and removal of parts.
Precise component positioning in mechanical assemblies dictates the difference between seamless indexing and mechanical binding. A fraction of a millimeter in plunger travel matters. Engineers must control this movement to ensure reliable machine operation.
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