Loading…

Impact of On-Chip Interconnection in a Large-Scale Memristor Crossbar Array for Neural Network Accelerator and Neuromorphic Chip

A crossbar array that combines computation and storage functions in non-volatile resistive memory is a promising artificial intelligence (AI) computing architecture. It is because it can largely save a significant energy from interconnection between a processor and a memory. However, the parasitic c...

Full description

Saved in:
Bibliographic Details
Main Authors: Shin, Taein, Son, Kyungjune, Kim, Seongguk, Cho, Kyungjun, Park, Shinyoung, Kim, Subin, Park, Gapyeol, Sim, Boogyo, Kim, Joungho
Format: Conference Proceeding
Language:English
Subjects:
Online Access:Request full text
Tags: Add Tag
No Tags, Be the first to tag this record!
Description
Summary:A crossbar array that combines computation and storage functions in non-volatile resistive memory is a promising artificial intelligence (AI) computing architecture. It is because it can largely save a significant energy from interconnection between a processor and a memory. However, the parasitic components from its dense interconnection can affect the electrical performance of noise-sensitive analog-computing and small read voltage margin of the memristor. In this paper, we designed a large-scale memristor crossbar array, and modeled it into equivalent circuit models and analyzed its signal integrity considering IR drop, crosstalk and ripple. These factors were compared depending on the physical dimension of on-chip interconnection and operating frequency. Based on the eye-diagram simulation, we could successfully demonstrate the voltage margin and timing margin for memristor operations.
ISSN:2165-4115
DOI:10.1109/EPEPS47316.2019.193227