Abstract — This paper presents a power grid an-alyzer that combines a divide-and-conquer strategy with a random-walk engine. A single-level hierarchi-cal method is first described and then extended to multi-level and “virtual-layer ” hierarchy. Experimen-tal results show that these algorithms not only achieve speedups over the generic random-walk method, but also are more robust in solving various types of in-dustrial circuits. For example, a 71K-node circuit is solved in 4.16 seconds, showing a more than 4 times speedup over the generic method; a 348K-node wire-bond power grid, for which the performance of the generic method degrades, is solved in 75.88 seconds. I
We present a methodology for the design and analysis of power grids in the PowerPC ™ microprocessors...
Unlike conventional utility grids, microgrids comprise generators, storage devices and loads at all ...
Abstract — This paper presents an efficient method for optimizing the design of power/ground (P/G) n...
It is found that the efficiency of the generic random walk analyzer varies for power grids with diff...
University of Minnesota Ph.D. dissertatation. August 2013. Major: Electrical Engineering. Advisor: S...
This paper presents a linear-time algorithm for the DC analysis of a power grid, based on a random w...
Power grid design and analysis is a critical part of modern VLSI chip design and demands tools for a...
Abstract: An electrical power grid is a critical infrastructure. Its reliable, robust, and efficient...
It is increasingly challenging to analyze present day large-scale power delivery networks (PDNs) due...
Abstract It is a common practice to simulate some historical or test systems to validate the efficie...
Abstract—In this paper, we present a novel pattern-based method to simulate large-scaled power/groun...
The purpose of this thesis is to expand the rigor of the development of new power flow solvers throu...
This dissertation proposes a hierarchy of microgrid models that can be utilized for power system ana...
This paper deals with hierarchical model predictive control (MPC) of smart grid systems. The design ...
Random walks is one of the most popular ideas in computer science. A critical assumption in random w...
We present a methodology for the design and analysis of power grids in the PowerPC ™ microprocessors...
Unlike conventional utility grids, microgrids comprise generators, storage devices and loads at all ...
Abstract — This paper presents an efficient method for optimizing the design of power/ground (P/G) n...
It is found that the efficiency of the generic random walk analyzer varies for power grids with diff...
University of Minnesota Ph.D. dissertatation. August 2013. Major: Electrical Engineering. Advisor: S...
This paper presents a linear-time algorithm for the DC analysis of a power grid, based on a random w...
Power grid design and analysis is a critical part of modern VLSI chip design and demands tools for a...
Abstract: An electrical power grid is a critical infrastructure. Its reliable, robust, and efficient...
It is increasingly challenging to analyze present day large-scale power delivery networks (PDNs) due...
Abstract It is a common practice to simulate some historical or test systems to validate the efficie...
Abstract—In this paper, we present a novel pattern-based method to simulate large-scaled power/groun...
The purpose of this thesis is to expand the rigor of the development of new power flow solvers throu...
This dissertation proposes a hierarchy of microgrid models that can be utilized for power system ana...
This paper deals with hierarchical model predictive control (MPC) of smart grid systems. The design ...
Random walks is one of the most popular ideas in computer science. A critical assumption in random w...
We present a methodology for the design and analysis of power grids in the PowerPC ™ microprocessors...
Unlike conventional utility grids, microgrids comprise generators, storage devices and loads at all ...
Abstract — This paper presents an efficient method for optimizing the design of power/ground (P/G) n...