SinoTechIntel Academic Portal
Official PDF TranslationEngineering Information Technology & Electronic Engineering

From software-defined interconnect to software-defined system-on-wafer: a computing architecture revolution in the post-Moore era

Authors: Ping LV; Qinrang LIU; Jiangxing WU; Jianliang SHEN; Mengke LIAN; Rui CAO; Shuai WEI; Zhichao LI; Peijie LI; Wei GUO; Wenjian ZHANG; Hong YU; Yanzhao GAO

DOI: 10.1631/ENG_ITEE_2025_0063Status: Verified Translated Edition
Sponsored AdvertisementAd Placement Area
reCAPTCHA Bot Shield Active

Preparing Secure Academic Download

Verifying human reader & generating high-resolution document...

Verifying Document Integrity15s remaining
← Back to Article
Protected by Google reCAPTCHA v3.PrivacyTerms
Sponsored ContentAdSense In-Feed Ad Slot

Key Findings in This Report

• SDSoW achieves approximately 3.73×–4.39× higher throughput, 79.2% lower latency, and 2.8× higher power efficiency compared to conventional multi-chip systems. • The architecture enables wafer-level heterogeneous integration with dynamic reconfiguration of thousands of computing chiplets across an entire wafer. • The application-driven dynamic architecture reconfiguration (ADR) paradigm optimizes wafer-scale resources in real time and may foster emergent intelligence in large heterogeneous systems. • This paradigm shift offers a viable pathway beyond Moore’s law via innovative architectural design rather than process scaling.
Download Full PDF: From software-defined interconnect to software-defined system-on-wafer: a computing architecture revolution in the post-Moore era | SinoTechIntel | SinoTechIntel