A physical model for the design of the power distribution networks in three-dimensional integrated circuits is proposed. The tradeoffs among the different design parameters are specified and analyzed. Different case studies are explored, indicating that smaller and denser TSVs can deliver power more efficiently as compared to larger and coarsely distributed TSVs. The interplay between the TSV count and the intra-plane power distribution network in reducing the power supply noise is also shown
Abstract—In recent years, interconnect issues emerged as major performance challenges for Two-Dimens...
3D design is being recognized widely as the next BIG thing in system integration. However, design an...
Abstract—With the extensive research on through-silicon-via (TSV) and die-stacking technology from b...
Abstract—A physical model for the design of the power distribution networks in three-dimensional int...
Distributing power and ground to a vertically integrated system is a complex and difficult task. Int...
Abstract—3-D integration has the potential to increase perfor-mance and decrease energy consumption....
Thesis (Ph. D.)--University of Rochester. Dept. of Electrical and Computer Engineering, 2013Through ...
Three-dimensional integrated circuits (3-D IC) are available through the die-stacking and through-si...
Three-dimensional-integrated circuits (3D-ICs) bring new issues for power delivery network design be...
Abstract—3-D integrated circuits promise high bandwidth, low latency, low device power, and a small ...
To reduce interconnect delay and power consumption while improving chip performance, a three-dimensi...
In this paper, we propose a model for 3-D stacked on-chip power distribution networks (PDNs) in thro...
Abstract—Power delivery network (PDN) design is one of the most critical challenges in 3D Integrated...
Continued technology scaling together with the integration of disparate technologies in a single chi...
Abstract—To harness the full potential of 3-D integrated circuits, analysis tools for early design s...
Abstract—In recent years, interconnect issues emerged as major performance challenges for Two-Dimens...
3D design is being recognized widely as the next BIG thing in system integration. However, design an...
Abstract—With the extensive research on through-silicon-via (TSV) and die-stacking technology from b...
Abstract—A physical model for the design of the power distribution networks in three-dimensional int...
Distributing power and ground to a vertically integrated system is a complex and difficult task. Int...
Abstract—3-D integration has the potential to increase perfor-mance and decrease energy consumption....
Thesis (Ph. D.)--University of Rochester. Dept. of Electrical and Computer Engineering, 2013Through ...
Three-dimensional integrated circuits (3-D IC) are available through the die-stacking and through-si...
Three-dimensional-integrated circuits (3D-ICs) bring new issues for power delivery network design be...
Abstract—3-D integrated circuits promise high bandwidth, low latency, low device power, and a small ...
To reduce interconnect delay and power consumption while improving chip performance, a three-dimensi...
In this paper, we propose a model for 3-D stacked on-chip power distribution networks (PDNs) in thro...
Abstract—Power delivery network (PDN) design is one of the most critical challenges in 3D Integrated...
Continued technology scaling together with the integration of disparate technologies in a single chi...
Abstract—To harness the full potential of 3-D integrated circuits, analysis tools for early design s...
Abstract—In recent years, interconnect issues emerged as major performance challenges for Two-Dimens...
3D design is being recognized widely as the next BIG thing in system integration. However, design an...
Abstract—With the extensive research on through-silicon-via (TSV) and die-stacking technology from b...