Theses/Dissertations
Author Joshi, Mandar Vijay, 1982-

Title Defect-tolerance and testing for configurable nano-crossbars / by Mandar Vijay Joshi.

Published ©2008.
LOCATION CALL # STATUS
 MST DEPOSITORY  THESIS T 9338/9360  MICROFILM    NOT CHECKED OUT
 MST Thesis  THESIS T 9345    NOT CHECKED OUT
Description ix, 41 leaves : illustrations ; 28 cm
Summary "Moore's Law speculated a trend in computation technology in terms of number of transistors per unit area that would double roughly every two years. Even after 40 years of this prediction, current technologies have been following it successfully. There are however, certain physical limitations of current CMOS that would result in fundamental obstructions to continuation of Moore's Law. Although there is a debate amongst experts on how much time it would take for this to happen, it is certain that some entirely new paradigms for semiconductor electronics would be needed to replace CMOS and to delay the end of Moore's Law. Silicon nanowires (SiNW) and Carbon nanotubes (CNT) possess significant promise to replace current CMOS"--Abstract, leaf iv.
Notes Vita.
M.S. Missouri University of Science and Technology 2008.
Includes bibliographical references.
Subjects Nanotechnology.
Nanostructured materials.
Integrated circuits -- Fault tolerance.
Other Titles Defect tolerance and testing for configurable nano crossbars.
MST thesis. Computer Engineering (M.S., 2008).
Nanofabric PLA architecture with redundancy enhancement.
BIST approach for configurable nanofabric arrays.
Additional Keywords NanoFabric.
OCLC/WorldCat Number 260055420
Author Joshi, Mandar Vijay, 1982-
Title Defect-tolerance and testing for configurable nano-crossbars / by Mandar Vijay Joshi.
Subjects Nanotechnology.
Nanostructured materials.
Integrated circuits -- Fault tolerance.
Additional Keywords NanoFabric.
Other Titles Defect tolerance and testing for configurable nano crossbars.
MST thesis. Computer Engineering (M.S., 2008).
Nanofabric PLA architecture with redundancy enhancement.
BIST approach for configurable nanofabric arrays.