Porous Copper Bar for Optical Module

The Porous Copper Bar for Optical Module Liquid Cooling is a high-performance thermal management component specifically designed for heat dissipation of optical modules.
description1
Zipper closure 1/4 zip athletic pullovers for men. Stretchy, lightweight, fast-drying fabric for superior performance. REGULAR FIT - US standard sizes. An athletic fit that sits close to the body for a wide range of motion, designed for optimal performance and all day comfort. FEATURES - Quarter zip closure;Thumbholes on long sleeves to keep them in place during workout
Porous Copper Bar for Optical Module

Core Structure and Material Advantages

Made of high-purity copper (purity ≥ 99.9%), the porous copper bar is processed through advanced extrusion to form a uniform, three-dimensional porous structure. The porous structure features high porosity (30%-60%) and interconnected pores, which not only retain the inherent high thermal conductivity of copper (thermal conductivity ≥ 380 W/(m·K)) but also maximize the contact area between the copper bar and the cooling liquid.

Application Scenarios

This porous copper bar is mainly used in liquid cooling systems of high-speed optical modules, including but not limited to:
  • Data Center Optical Communication Equipment: Applied to optical modules in server cabinets, switches, and optical transceivers, solving the heat dissipation problem of high-power, high-speed optical modules in dense deployment scenarios.
  • 5G/6G Base Station Equipment: Used in optical modules of base station transceivers, adapting to the high-temperature working environment of outdoor base stations and ensuring stable signal transmission.
  • High-Performance Computing (HPC): Applied to optical modules in supercomputers and high-performance servers, providing efficient thermal management support for high-speed data transmission and computing.
  • Industrial Optical Equipment: Used in optical modules for industrial control, aerospace, and other fields, where high reliability and efficient heat dissipation are required.