Three dimensional circuit layouts
SIAM Journal on Computing
The physics of VLSI systems
A physical approach to communication limits in computation
A physical approach to communication limits in computation
Journal of Parallel and Distributed Computing - Special issue on parallel computing with optical interconnects
Three-Dimensional VLSI: a case study
Journal of the ACM (JACM)
Area-Efficient VLSI Computation
Area-Efficient VLSI Computation
A VLSI Architecture for Concurrent Data Structures
A VLSI Architecture for Concurrent Data Structures
Fundamentals of Optical Interconnections: A Review
MPPOI '97 Proceedings of the 4th International Conference on Massively Parallel Processing Using Optical Interconnections
Computational Aspects of VLSI
IEEE Transactions on Computers
How Big Should a Printed Circuit Board Be?
IEEE Transactions on Computers
On a Pin Versus Block Relationship For Partitions of Logic Graphs
IEEE Transactions on Computers
On the Tradeoff Between Logic Performance and Circuit-to-Pin Ratio for LSI
IEEE Transactions on Computers
Equivalence of memory to "Random Logic"
IBM Journal of Research and Development
Wire length distribution for placements of computer logic
IBM Journal of Research and Development
IBM Journal of Research and Development - POWER5 and packaging
Information flow and interconnections in computing: extensions and applications of Rent's rule
Journal of Parallel and Distributed Computing
Hi-index | 0.00 |
Rent's rule and related concepts of connectivity such as dimensionality, line-length distributions, and separators have found great use in fundamental studies of different interconnection media, including superconductors and optics, as well as the study of optoelectronic computing systems. In this paper generalizations for systems for which the Rent exponent is not constan tthroughout the interconnection hierarchy are provided. The origin of Rent's rule is stressed as resulting from the embedding of a high-dimensional information flow graph to two-or three-dimensional physical space. The applicability of these traditionally solid-wire-based concepts to free-space optically interconnected systems is discussed.