Premium Zinc Alloy Gigabi SFP Optical Module for High-Performance Data Centers

With over two decades of unparalleled expertise in precision metal machining and SFP optical module housing, Yixiang Precision stands as a global leader in manufacturing excellence. Specializing in non-standard CNC turning & milling, we use superior materials such as copper, aluminum, and stainless steel. Our globally acclaimed zinc alloy die-casting components epitomize quality, extensively shipped to Europe, the USA, Russia, and beyond, meeting the highest ISO-certified standards across critic

Equipped with 15 CNC Precision Automatic Lathes, 20 CNC machines, and 10 advanced zinc alloy die-casting systems, our state-of-the-art facility ensures rigorous quality control at every production stage. From raw material processing to final packaging, we comply with RoHS, REACH, and specific client standards, delivering components that are exceptionally durable and corrosion-resistant, suitable for the most demanding applications.

As a premier zinc alloy die-casting manufacturer in China, Yixiang offers superior SFP/XFP/QSFP+ module housings that excel in EMI shielding and thermal stability. Our cutting-edge high-pressure die-casting (HPDC) technology ensures cost-effective, high-volume production, perfectly meeting the demands of 5G and telecom infrastructure clients seeking unparalleled excellence.

Our products proudly serve a wide array of industries, including LED lighting, wire rope accessories, medical implants, aviation fittings, and fiber optic communication systems. Our multi-axis CNC machining capabilities accommodate everything from low-volume prototypes to expansive OEM/ODM orders, consistently fulfilling the evolving demands of our esteemed clients.

We ensure swift processing of standard export orders, achieving a shipment timeline of 15-25 days, complete with ISO-compliant documentation and seamless logistics to EU/US ports. For urgent OEM projects, we provide expedited services to ensure timely fulfillment of even the most critical time-sensitive requirements.