In this paper, we propose a generalized multiple-block structure-preserving reduced order interconnect macromodeling method (BSPRIM).
It has been found that aspect ratio scaling significantly reduces the interconnect delay and switching energy and at minimum aspect ratio, Cu wire performs better than even an optimized mixed CNT bundle for global interconnect length under subthreshold conditions.
These newly proposed methods try to avoid the expensive computing steps in traditional TBR methods at some cost to accuracy to boost efficiency and scalability, which is critical to reduce large interconnect parasitics modeled as RLCK circuits.
During the electrode fabrication, the submicron Si particles are encapsulated with 3D carbon matrix including a carbon coating on the Si particles and interconnected reduced graphene layers, which can effectively mitigate volume variation of the Si as well as support electrical conductivity.
When the dielectric constant of an insulator in an interconnect is reduced, mechanical properties are often compromised, giving rise to significant challenges in interconnect integration and reliability.
A 3D IC is formed by vertical interconnection of multiple substrates containing active devices which offer reduced die footprint and interconnect length.
For this prototype, couplings between elements are significantly reduced by using the interconnecting inductors.
However, the randomly dispersed partially reduced GO sheets were interconnected between the conducting PEDOT PTS polymer chains, and the rGO sheets formed a direct bridge between the conducting PEDOT PTS chains.
Herein, for the first time, a unique core-shell porous FeP@CoP phosphide micocubes interconnected via reduced graphene oxide (RGO) nanosheets (RGO@CoP@FeP) are for the first time synthesized via a low-temperature phosphorization process using prussion blue as reactant template.
