INNOVACERA | technical ceramic solutions

As optical communication, LiDAR, and high-precision optoelectronic detection systems evolve toward higher power and greater integration density, they place higher demands on the performance of optoelectronic packaging materials. The increase in device power brings challenges in heat dissipation and high-temperature stability, while the improvement in integration density raises the risks of internal stray light interference and electrostatic discharge (ESD), directly affecting system reliability and signal-to-noise ratio. Traditional white alumina has limitations in optical control, and conventional ESD protection solutions often fail to be perfectly compatible with high gas-tightness and high thermal conductivity packaging systems.   Based on the high mechanical strength, thermal conductivity, and excellent insulation properties of black  alumina ceramics , the material achieves a multi-functional integration of optical control, thermal management, and on-chip electrostatic di...

Traditional white   alumina ceramics   have held a significant market position in electronic packaging applications due to their excellent electrical insulation, high-temperature resistance, and mechanical strength. However, with the rapid miniaturization and high-powerization of optoelectronic devices, users’ demands for the optical purity and signal accuracy of products have become increasingly strict. The high-reflectivity white ceramic surface can no longer meet the requirements of many high-precision packaging fields. For this purpose, black alumina ceramic materials were developed. These materials not only retain the original characteristics of the materials but also possess excellent light absorption properties and low reflectivity.     Black alumina ceramics are made from alumina materials by doping specific metal or non-metal ions. These dopants can absorb various light waves in the visible light spectrum, thereby achieving a stable black appearance. This ma...