Date of Award:

5-2023

Document Type:

Thesis

Degree Name:

Master of Science (MS)

Department:

Electrical and Computer Engineering

Committee Chair(s)

Zhen Zhang

Committee

Zhen Zhang

Committee

Arnd Hartmanns

Committee

Sanghamitra Roy

Abstract

Modeling physical systems with formal analysis tools can help in the design of more fault-proof systems, by helping to determine if unpredictable or unwanted behavior may occur. Probabilistic verification further advances such processes, by providing quantitative information about the system. More complex systems can especially benefit from formal modeling and verification, as testing the physical system in every possible condition manually, can be extremely complex, and often impossible.

There is a growing interest in the application of Network-on-Chip (NoC) systems. NoCs can help simplify communication between the subsystems of many technologies, including the ever more complex multicore processors being produced. These NoCs come with their own problems, and under high network activity, can cause power fluctuations on the chip’s power supply. These fluctuations can cause data corruption and loss, resulting in reduced performance, and even unpredictable behavior.

This work presents a novel approach to creating a modular probabilistic model of an NoC, which can be scaled to meet the needs of a variety of implementations. Additionally, it presents a structured approach for ensuring that NoC models are indeed representative of their physical counterparts.

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