LUCIE: A Universal Chiplet-Interposer Design Framework for Plug-and-Play Integration

Multi-chip modules, recently also known as chiplets, are a promising approach to building large-scale silicon in the post-Moore's Law era. While chiplet-based designs offer advantages like averting manufacturing yield issues and enabling heterogeneous integration, there has not been a standard for seamless communication and integration of chiplets. This paper proposes LUCIE, a Lightweight Universal Chiplet-Interposer Ecosystem that provides a universal, modular, and reconfigurable framework for plug-and-play integration of chiplets. The key ideas behind LUCIE include a flexible 2D grid-based interposer design and a placement tool to aid chiplet integration. Its lightweight design and direct connection between chiplets allowed designs to fit into the LUCIE framework with minimal effort while achieving great performance. Performance analysis showed that LUCIE's performance is comparable to custom interposers, up to twice as fast as NoC-on-NoP designs in certain scenarios, and around 20% more power efficient than NoC-on-NoP designs. Compared to using custom interposers, cost analysis showed that LUCIE saves up to 18.9% of manufacturing cost, $60,000 of Non-Recurring Engineering cost, and 30 weeks less time-to-market. The LUCIE framework is more flexible and ideal for more topologies, such as 2D mesh and star topology. With the development of a novel, graph-based placement algorithm, LUCIE significantly reduces design complexity compared to monolithic and custom interposer-based chiplet systems while providing a high degree of modularity and reconfigurability.

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Publication Details

Published
2024-11-02
DOI
https://doi.org/10.1109/micro61859.2024.00039
Citations
3
Primary Topic
Embedded Systems Design Techniques
Type
article
Field-Weighted Citation Impact
1.47
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article

LUCIE: A Universal Chiplet-Interposer Design Framework for Plug-and-Play Integration

Zhenhong Li, David Wentzlaff
3 citations
Embedded Systems Design Techniques
1.47
article

LUCIE: A Universal Chiplet-Interposer Design Framework for Plug-and-Play Integration

Zhenhong Li, David Wentzlaff
article en
3 citations

Abstract

Multi-chip modules, recently also known as chiplets, are a promising approach to building large-scale silicon in the post-Moore's Law era. While chiplet-based designs offer advantages like averting manufacturing yield issues and enabling heterogeneous integration, there has not been a standard for seamless communication and integration of chiplets. This paper proposes LUCIE, a Lightweight Universal Chiplet-Interposer Ecosystem that provides a universal, modular, and reconfigurable framework for plug-and-play integration of chiplets. The key ideas behind LUCIE include a flexible 2D grid-based interposer design and a placement tool to aid chiplet integration. Its lightweight design and direct connection between chiplets allowed designs to fit into the LUCIE framework with minimal effort while achieving great performance. Performance analysis showed that LUCIE's performance is comparable to custom interposers, up to twice as fast as NoC-on-NoP designs in certain scenarios, and around 20% more power efficient than NoC-on-NoP designs. Compared to using custom interposers, cost analysis showed that LUCIE saves up to 18.9% of manufacturing cost, $60,000 of Non-Recurring Engineering cost, and 30 weeks less time-to-market. The LUCIE framework is more flexible and ideal for more topologies, such as 2D mesh and star topology. With the development of a novel, graph-based placement algorithm, LUCIE significantly reduces design complexity compared to monolithic and custom interposer-based chiplet systems while providing a high degree of modularity and reconfigurability.

Princeton University (US)
Openalex Percentile: Top 16%
Embedded Systems Design Techniques
1.47
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