Chiplet封装，新革命

Core Insights - The transition from SoC to multi-chip integration requires more intelligent controllers within the packaging to ensure optimal performance and signal integrity [1] - The complexity of managing interactions between chiplets necessitates a focus on performance enhancement and power savings while ensuring design reusability [1][9] - Real-time self-tuning capabilities are essential for systems to maintain operational efficiency post-deployment [2] Group 1: Challenges in Multi-Chip Design - The increasing transistor density and higher utilization of computing units lead to significant thermal management challenges [3] - Testing and anomaly detection can be improved by shifting testing to the wafer stage, reducing the risk of scrapping entire packages due to faults [4] - The lack of standardized placement for intelligent control units complicates the design process, with external and internal monitoring approaches being explored [5] Group 2: Technological Innovations - The introduction of built-in self-test (BiST) technology can provide valuable data, although it poses area constraints in SoC designs [6] - The need for robust interconnect structures is critical for transitioning from aerospace-grade designs to broader applications, benefiting data center chip designs [7] - Intelligent "switch" systems are necessary to monitor and redirect traffic, increasing the demand for real-time monitoring capabilities [8] Group 3: Advantages of Multi-Chip Packaging - Multi-chip packaging offers significant advantages over traditional SoCs, allowing for higher performance and lower power consumption by utilizing advanced packaging techniques [9] - The heterogeneous computing structure necessitates enhanced real-time monitoring and management to ensure stable performance and reliability over the chip's lifecycle [9]