ASU Electronic Theses and Dissertations
This collection includes most of the ASU Theses and Dissertations from 2011 to present. ASU Theses and Dissertations are available in downloadable PDF format; however, a small percentage of items are under embargo. Information about the dissertations/theses includes degree information, committee members, an abstract, supporting data or media.
In addition to the electronic theses found in the ASU Digital Repository, ASU Theses and Dissertations can be found in the ASU Library Catalog.
Dissertations and Theses granted by Arizona State University are archived and made available through a joint effort of the ASU Graduate College and the ASU Libraries. For more information or questions about this collection contact or visit the Digital Repository ETD Library Guide or contact the ASU Graduate College at email@example.com.
- 2 English
- 2 Masters Thesis
- 2 Public
- Electrical engineering
- 1 Aluminium Conductor Composite Core (ACCC)
- 1 Aluminum Conductor Composite Reinforced (ACCR)
- 1 CBRAM
- 1 Dynamic Mechanical Analysis (DMA)
- 1 Fault current temperature relationship
- 1 High Temperature Low Sag (HTLS) conductors
- 1 Materials Science
- 1 PMC
- 1 RRAM
- 1 Tensile testing
- 1 programmable metallization cell
- 1 simulation model
The future grid will face challenges to meet an increased power demand by the consumers. Various solutions were studied to address this issue. One alternative to realize increased power flow in the grid is to use High Temperature Low Sag (HTLS) since it fulfills essential criteria of less sag and good material performance with temperature. HTLS conductors like Aluminum Conductor Composite Reinforced (ACCR) and Aluminum Conductor Carbon Composite (ACCC) are expected to face high operating temperatures of 150-200 degree Celsius in order to achieve the desired increased power flow. Therefore, it is imperative to characterize the material performance of these …
- Banerjee, Koustubh, Gorur, Ravi, Gorur, Ravi, et al.
- Created Date
Advances in software and applications continue to demand advances in memory. The ideal memory would be non-volatile and have maximal capacity, speed, retention time, endurance, and radiation hardness while also having minimal physical size, energy usage, and cost. The programmable metallization cell (PMC) is an emerging memory technology that is likely to surpass flash memory in all the listed ideal memory characteristics. A comprehensive physics-based model is needed to fully understand PMC operation and aid in design optimization. With the intent of advancing the PMC modeling effort, this thesis presents two simulation models for the PMC. The first model is …
- Oleksy, David Ryan, Barnaby, Hugh J, Kozicki, Michael N, et al.
- Created Date