Design and Analysis of Twin Tower High Bandwidth Memory (HBM) Architecture for Large Memory Capacity and High Bandwidth System

The rapid advancement of AI, driven by generative AI based on transformer models, demands memory systems with higher capacity and bandwidth, yet current HBM technologies face scaling limitations due to architectural and manufacturing constraints. To address this, we propose the twin tower HBM architecture, integrating two DRAM stacks on a single, elongated base die to double memory capacity and enhance bandwidth. The extended base die also allows for architectural flexibility, including the integration of near-memory computing units. Supporting up to 12 DRAM stacks per GPU, this architecture achieves 576 GB capacity and 1,638 GB/s bandwidth—a 27.9% improvement over HBM3e—while maintaining robust signal integrity through optimized interposer channel designs validated via EM and SPICE simulations. This innovative solution provides a cost-effective path to scaling AI infrastructure and overcoming memory bottlenecks in next-generation workloads.

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Publication Details

Published
2024-12-17
DOI
https://doi.org/10.1109/edaps64431.2024.10988462
Citations
6
Primary Topic
Parallel Computing and Optimization Techniques
Type
article
Field-Weighted Citation Impact
2.93
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article

Design and Analysis of Twin Tower High Bandwidth Memory (HBM) Architecture for Large Memory Capacity and High Bandwidth System

Hyunah Park, Hyunjun An, Jung‐Min Ahn, Jiwon Yoon et al.
6 citations
Parallel Computing and Optimization Techniques
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article

Design and Analysis of Twin Tower High Bandwidth Memory (HBM) Architecture for Large Memory Capacity and High Bandwidth System

Hyunah Park, Hyunjun An, Jung‐Min Ahn, Jiwon Yoon, Haeyeon Kim, Taesoo Kim, Haeseok Suh, Joungho Kim, Seonguk Choi
article en
6 citations

Abstract

The rapid advancement of AI, driven by generative AI based on transformer models, demands memory systems with higher capacity and bandwidth, yet current HBM technologies face scaling limitations due to architectural and manufacturing constraints. To address this, we propose the twin tower HBM architecture, integrating two DRAM stacks on a single, elongated base die to double memory capacity and enhance bandwidth. The extended base die also allows for architectural flexibility, including the integration of near-memory computing units. Supporting up to 12 DRAM stacks per GPU, this architecture achieves 576 GB capacity and 1,638 GB/s bandwidth—a 27.9% improvement over HBM3e—while maintaining robust signal integrity through optimized interposer channel designs validated via EM and SPICE simulations. This innovative solution provides a cost-effective path to scaling AI infrastructure and overcoming memory bottlenecks in next-generation workloads.

Korea Advanced Institute of Science and Technology (KR)
Affordable and clean energy
Openalex Percentile: Top 7%
Parallel Computing and Optimization Techniques
2.93
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Design and Analysis of Twin Tower High Bandwidth Memory (HBM) Architecture for Large Memory Capacity and High Bandwidth System — Hyunah Park, Hyunjun An, et al. · (2024) | TGRS Research Map | TGRS