This paper outlines the electrical and thermal properties of carbon nanotubes (CNT) as a potential replacement for Copper (Cu) in through silicon vias (TSV). Cu has undesirable thermal properties, and CNTs could resolve issues that high density interconnects experience under high thermal loads around 100 C. Most notably, the coefficient of thermal expansion for CNTs is two orders of magnitude lesser than Cu [1]. The electrical and mechanical properties of CNTs under a high frequency load of 1 THz, and high thermal load of 100 C are simulated with ABAQUS 6.16. There is no observable skin effect modelled for the Cu or Single-Walled Carbon Nanotube (SWCNT) wires simulated in this paper
The paper investigates the high-frequency distribution of the current density in Through-Silicon Via...
Abstract—This paper presents a comprehensive study of the ap-plicability of single-walled carbon nan...
Computer Integrated Circuit (IC) microprocessors are becoming more powerful and densely packed while...
With excellent current carrying capacity and extremely high thermal conductivity, carbon nanotube (C...
Future miniaturization of advanced electronic systems will require 3D chip-to-chip stacking of high ...
The goal of this research is to develop a consistent and repeatable method to evaluate: a) effective...
Miniaturization of interconnects is inevitable for the next-generation microelectronic devices. Copp...
International audienceCarbon nanotubes (CNTs) present themselves as a viable material for on-and off...
Carbon nanotubes (CNTs) are a suitable replacement for metals commonly used as a fill material for t...
The dramatic scaling of the integrated circuit technology leads to significant challenges for Cu int...
For future miniaturization of electronic systems using 3D chip stacking, new fine-pitch materials fo...
Thesis (M. Eng.)--Massachusetts Institute of Technology, Dept. of Materials Science and Engineering,...
We offer new paradigms for electronic devices and digital integrated circuits (ICs) in an effort to ...
Advisors: Iman Salehinia.Committee members: Nicholas Pohlman; John Shelton.Includes illustrations.In...
International audienceCarbon nanotubes (CNTs) due their unique mechanical, thermal, and elec...
The paper investigates the high-frequency distribution of the current density in Through-Silicon Via...
Abstract—This paper presents a comprehensive study of the ap-plicability of single-walled carbon nan...
Computer Integrated Circuit (IC) microprocessors are becoming more powerful and densely packed while...
With excellent current carrying capacity and extremely high thermal conductivity, carbon nanotube (C...
Future miniaturization of advanced electronic systems will require 3D chip-to-chip stacking of high ...
The goal of this research is to develop a consistent and repeatable method to evaluate: a) effective...
Miniaturization of interconnects is inevitable for the next-generation microelectronic devices. Copp...
International audienceCarbon nanotubes (CNTs) present themselves as a viable material for on-and off...
Carbon nanotubes (CNTs) are a suitable replacement for metals commonly used as a fill material for t...
The dramatic scaling of the integrated circuit technology leads to significant challenges for Cu int...
For future miniaturization of electronic systems using 3D chip stacking, new fine-pitch materials fo...
Thesis (M. Eng.)--Massachusetts Institute of Technology, Dept. of Materials Science and Engineering,...
We offer new paradigms for electronic devices and digital integrated circuits (ICs) in an effort to ...
Advisors: Iman Salehinia.Committee members: Nicholas Pohlman; John Shelton.Includes illustrations.In...
International audienceCarbon nanotubes (CNTs) due their unique mechanical, thermal, and elec...
The paper investigates the high-frequency distribution of the current density in Through-Silicon Via...
Abstract—This paper presents a comprehensive study of the ap-plicability of single-walled carbon nan...
Computer Integrated Circuit (IC) microprocessors are becoming more powerful and densely packed while...