3-D Stacking for AI Systems: Emulating Heterogeneous 3-D Architectures for AI

3D integration provides substantial benefits in boosting system performance and efficiency, especially in the End-of-Scaling era. The increasing demand for greater computational power, larger GPU cache sizes, energy efficiency, and low-power custom AI hardware further drives the need for 3D integration. Despite the demonstrated advantages of 3D technology, such as enhanced interconnectivity and improved performance across various applications, the design of heterogeneous 3D systems experience challenges. Among these, the issues related to temperature management and long-term reliability arise from the complex interactions among system components, which are difficult for current modeling tools to accurately capture, necessitating detailed hardware characterization. This study explores the recent drivers of 3D integration and highlights the growing need for hardware emulation frameworks. It presents an emulator design focused on profiling key metrics such as power, temperature, noise, inter-layer bandwidth, and lifetime reliability, enabling the emulation of different stacking configurations. This framework not only allows for macro-level control of activity levels but also incorporates a specialized sensor infrastructure to evaluate heat distribution, inter-layer noise, power delivery, reliability, interconnectivity, and the interactions among crucial design objectives.

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Publication Details

Journal
IEEE Transactions on Components Packaging and Manufacturing Technology
Published
2025-05-05
DOI
https://doi.org/10.1109/tcpmt.2025.3567201
Citations
3
Primary Topic
Manufacturing Process and Optimization
Type
article
Field-Weighted Citation Impact
3.73
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article

3-D Stacking for AI Systems: Emulating Heterogeneous 3-D Architectures for AI

Paul D. Franzon, Eren Kurshan
3 citations
IEEE Transactions on Components Packaging and Manufacturing Technology
Manufacturing Process and Optimization
3.73
article

3-D Stacking for AI Systems: Emulating Heterogeneous 3-D Architectures for AI

Paul D. Franzon, Eren Kurshan
article en
3 citations

Abstract

3D integration provides substantial benefits in boosting system performance and efficiency, especially in the End-of-Scaling era. The increasing demand for greater computational power, larger GPU cache sizes, energy efficiency, and low-power custom AI hardware further drives the need for 3D integration. Despite the demonstrated advantages of 3D technology, such as enhanced interconnectivity and improved performance across various applications, the design of heterogeneous 3D systems experience challenges. Among these, the issues related to temperature management and long-term reliability arise from the complex interactions among system components, which are difficult for current modeling tools to accurately capture, necessitating detailed hardware characterization. This study explores the recent drivers of 3D integration and highlights the growing need for hardware emulation frameworks. It presents an emulator design focused on profiling key metrics such as power, temperature, noise, inter-layer bandwidth, and lifetime reliability, enabling the emulation of different stacking configurations. This framework not only allows for macro-level control of activity levels but also incorporates a specialized sensor infrastructure to evaluate heat distribution, inter-layer noise, power delivery, reliability, interconnectivity, and the interactions among crucial design objectives.

IEEE Transactions on Components Packaging and Manufacturing TechnologyVol. 15(6)
North Carolina State University (US), Princeton University (US)
Openalex Percentile: Top 7%
Manufacturing Process and Optimization
3.73
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