The integration of photonic and electronic materials into a single platform, known as hybrid integration, represents a pivotal advancement for next-generation technologies. This approach harnesses the high-speed, low-loss data transmission capabilities of photonic components and combines them with the versatile processing power and control mechanisms of electronics, enabling significant improvements in performance, efficiency, and scalability across applications like data centers, telecommunications, and sensing systems. Hybrid integration allows for faster data rates, reduced latency, and enhanced energy efficiency, essential for addressing the demands of modern applications. However, achieving this seamless integration involves overcoming several challenges, including thermal management, material compatibility, and precise alignment of photonic and electronic components.

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Heterogeneous and Hybrid Integration

  • Yasha Yi

摘要

The integration of photonic and electronic materials into a single platform, known as hybrid integration, represents a pivotal advancement for next-generation technologies. This approach harnesses the high-speed, low-loss data transmission capabilities of photonic components and combines them with the versatile processing power and control mechanisms of electronics, enabling significant improvements in performance, efficiency, and scalability across applications like data centers, telecommunications, and sensing systems. Hybrid integration allows for faster data rates, reduced latency, and enhanced energy efficiency, essential for addressing the demands of modern applications. However, achieving this seamless integration involves overcoming several challenges, including thermal management, material compatibility, and precise alignment of photonic and electronic components.