TY - JOUR
T1 - A spanning bus connected hypercube
T2 - A new scalable optical interconnection network for multiprocessors and massively parallel systems
AU - Louri, A.
AU - Neocleous, C.
N1 - Funding Information:
Manuscript received June 17, 1996; revised February 21, 1997. This work was supported by the NSF under Grant MIP 9310082. The authors are with the Department of Electrical and Computer Engineering, The University of Arizona, Tucson, AZ 85721 USA. Publisher Item Identifier S 0733-8724(97)04337-5.
PY - 1997/7
Y1 - 1997/7
N2 - A new scalable interconnection topology suitable for massively parallel systems called the spanning bus connected hypercube (SBCH) is proposed. The SBCH uses the hypercube topology as a basic building block and connects such building blocks using multidimensional spanning buses. In doing so, the SBCH combines positive features of both the hypercube (small diameter, high connectivity, symmetry, simple routing, and fault tolerance) and the spanning bus hypercube (SBH) (constant node degree, scalability, and ease of physical implementation), while at the same time circumventing their disadvantages. The SBCH topology permits the efficient support of many communication patterns found in different classes of computation such as busbased, mesh-based, tree-based problems as well as hypercubebased problems. A very attractive feature of the SBCH network is its ability to support a large number of processors while maintaining a constant degree and constant diameter. Other positive features include symmetry, incremental scalability, and faulttolerance. An optical implementation methodology is proposed for SBCH. The implementation methodology combines both the advantages of free space optics with those of wavelength division multiplexing techniques. A detailed analysis of the feasibility of the proposed network is also presented.
AB - A new scalable interconnection topology suitable for massively parallel systems called the spanning bus connected hypercube (SBCH) is proposed. The SBCH uses the hypercube topology as a basic building block and connects such building blocks using multidimensional spanning buses. In doing so, the SBCH combines positive features of both the hypercube (small diameter, high connectivity, symmetry, simple routing, and fault tolerance) and the spanning bus hypercube (SBH) (constant node degree, scalability, and ease of physical implementation), while at the same time circumventing their disadvantages. The SBCH topology permits the efficient support of many communication patterns found in different classes of computation such as busbased, mesh-based, tree-based problems as well as hypercubebased problems. A very attractive feature of the SBCH network is its ability to support a large number of processors while maintaining a constant degree and constant diameter. Other positive features include symmetry, incremental scalability, and faulttolerance. An optical implementation methodology is proposed for SBCH. The implementation methodology combines both the advantages of free space optics with those of wavelength division multiplexing techniques. A detailed analysis of the feasibility of the proposed network is also presented.
KW - Interconnection networks
KW - Massively parallel processing
KW - Optical interconnects
KW - Product networks
KW - Scalability
KW - Wavelength division multiplexing
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U2 - 10.1109/50.596971
DO - 10.1109/50.596971
M3 - Article
AN - SCOPUS:0031176938
SN - 0733-8724
VL - 15
SP - 1241
EP - 1252
JO - Journal of Lightwave Technology
JF - Journal of Lightwave Technology
IS - 7
ER -