ATPlace2.5D: Analytical Thermal-Aware Chiplet Placement Framework for Large-Scale 2.5D-IC

The surge in consumer electronics is catalyzing the evolution of 2.5D integrated circuits (2.5D-IC). As these systems expand in scale and integrate more chiplets, the significance of chiplet design tools, particularly automatic chiplet placement, is increasingly apparent. Yet, previous studies did not sufficiently consider the distinctive features of chiplets, encountering challenges related to low quality of wire-length and poor scalability. Moreover, the pronounced high temperatures in 2.5D-ICs have not been thoroughly addressed, indicating a lack of thermal-aware design exploration. In response, this paper presents ATPlace2.5D, an analytical thermal-aware chiplet placement framework for large-scale 2.5D-ICs. It can deliver solutions that balance wirelength and temperature, residing on the optimal Pareto frontier, in collaboration with an innovative, physics-based compact thermal model. Experimental results show that AT-Place2.5D can handle more than 60 chiplets in minutes, and outperforms TAP-2.5D in both maximum temperature and total wire-length by 5% and 42% in thermal-aware placement, with a 23× acceleration. This advancement holds promise for promoting the maturity and widespread application of 2.5D-ICs.

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Publication Details

Published
2024-10-27
DOI
https://doi.org/10.1145/3676536.3676648
Citations
8
Primary Topic
3D IC and TSV technologies
Type
article
Field-Weighted Citation Impact
1.67

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article

ATPlace2.5D: Analytical Thermal-Aware Chiplet Placement Framework for Large-Scale 2.5D-IC

Yibo Lin, Runsheng Wang, Qipan Wang, Ru Huang et al.
8 citations
3D IC and TSV technologies
1.67
article

ATPlace2.5D: Analytical Thermal-Aware Chiplet Placement Framework for Large-Scale 2.5D-IC

Yibo Lin, Runsheng Wang, Qipan Wang, Ru Huang, Xueqing Li, Tianyu Jia
article en
8 citations

Abstract

The surge in consumer electronics is catalyzing the evolution of 2.5D integrated circuits (2.5D-IC). As these systems expand in scale and integrate more chiplets, the significance of chiplet design tools, particularly automatic chiplet placement, is increasingly apparent. Yet, previous studies did not sufficiently consider the distinctive features of chiplets, encountering challenges related to low quality of wire-length and poor scalability. Moreover, the pronounced high temperatures in 2.5D-ICs have not been thoroughly addressed, indicating a lack of thermal-aware design exploration. In response, this paper presents ATPlace2.5D, an analytical thermal-aware chiplet placement framework for large-scale 2.5D-ICs. It can deliver solutions that balance wirelength and temperature, residing on the optimal Pareto frontier, in collaboration with an innovative, physics-based compact thermal model. Experimental results show that AT-Place2.5D can handle more than 60 chiplets in minutes, and outperforms TAP-2.5D in both maximum temperature and total wire-length by 5% and 42% in thermal-aware placement, with a 23× acceleration. This advancement holds promise for promoting the maturity and widespread application of 2.5D-ICs.

Peking University (CN)
Higher Education Discipline Innovation Project
Openalex Percentile: Top 15%
3D IC and TSV technologies
1.67
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