Electrical & Computer Engineering, Department of
First Advisor
Hamid R. Sharif-Kashani
Date of this Version
5-2024
Citation
A thesis presented to the faculty of the Graduate College at the University of Nebraska in partial fulfillment of requirements for the degree of Master of Science
Major: Telecommunications Engineering
Under the supervision of Professor Hamid R. Sharif-Kashani
Lincoln, Nebraska, May 2024
Abstract
As technology advances, the field of electrical and computer engineering continuously demands innovative tools and methodologies to facilitate effective learning and comprehension of fundamental concepts. Through a comprehensive literature review, it was discovered that there was a gap in the current research on using VR technology to effectively visualize and comprehend non-observable electrical characteristics of electronic circuits. This thesis explores the integration of Virtual Reality (VR) technology and real-time electronic circuit simulation with enhanced visualization of non-observable concepts such as voltage distribution and current flow within these circuits. The primary objective is to develop an immersive educational platform that makes understanding these abstract concepts intuitive and engaging. This research thesis implements the design and development of a VR-based circuit simulation environment. By leveraging VR’s immersive capabilities, users can physically interact with electronic components, observe the flow of electrical signals, and manipulate circuit parameters in real-time. Through this immersive experience, learners can gain a deeper understanding of different fundamental electronic principles, transcending the limitations of traditional two-dimensional diagrams and equations. Furthermore, this thesis focuses on the research and implementation of advanced and novel visualization techniques within the VR environment for non-observable electrical and electromagnetic properties to provide users with a clearer and more intuitive understanding of electrical circuit concepts. Examples include color-coded pathways for current flow and dynamic voltage gradient visualization. Additionally, real-time data representation and graphical overlays are researched and integrated to offer users insights into the dynamic behavior of circuits, allowing for better analysis and troubleshooting.
Advisor: Hamid R. Sharif-Kashani
Included in
Artificial Intelligence and Robotics Commons, Computer Engineering Commons, Educational Technology Commons, Engineering Education Commons, Graphics and Human Computer Interfaces Commons, Other Electrical and Computer Engineering Commons
Comments
Copyright 2024, Elliott Wolbach. Used by permission