Abstract: A fast, scalable, systolic modular multiplier is presented. Linear throughput scalability with respect to consumed hardware resources is achieved through simultaneous parallel processing of multiple independent data streams. Optimal clock rates are attained by virtue of systolic properties of limited fan-out of all signal paths and nearest neighbor interconnections. Signal sharing among input and output busses and a common control interface for all independent data streams is made possible, thus benefiting integrated circuit implementations.

Abstract: A fast, parallel modular multiplier is presented which is scalable according to available hardware resources. Linear throughput increases with respect to consumed resources is achieved. Multiple independent data streams may be processed simultaneously, and optimal clock rates are attained by virtue of limited fan-out of all signal paths and nearest neighbor interconnections. Integrated circuit implementation is benefited by the potential for signal sharing among input and output busses and a common control interface for all independent data streams.

Abstract: A fast, scalable, systolic modular multiplier based on functional array partitioning and high-radix modular reduction is presented. Systolic paradigms of limited fan-out on all signal paths and nearest neighbor interconnections guarantee optimally fast clock rates. Linear throughput scalability with respect to consumed hardware resources is achieved through simultaneous parallel processing of multiple independent data streams. Signal sharing among input and output busses and a common control interface for all independent data streams is made possible, thus benefiting integrated circuit implementations. Reductions in number of delay registers and required number of independent data streams for a given throughput requirement are achieved when interconnection delay does not dominate over processing element delay.

Abstract: A fast, scalable, systolic modular multiplier is presented. Linear throughput scalability with respect to consumed hardware resources is achieved through simultaneous parallel processing of multiple independent data streams. Optimal clock rates are attained by virtue of systolic properties of limited fan-out of all signal paths and nearest neighbor interconnections. Signal sharing among input and output busses and a common control interface for all independent data streams is made possible, thus benefiting integrated circuit implementations.

Abstract: A fast, parallel modular multiplier is presented which is scalable according to available hardware resources. Linear throughput increases with respect to consumed resources is achieved. Multiple independent data streams may be processed simultaneously, and optimal clock rates are attained by virtue of limited fan-out of all signal paths and nearest neighbor interconnections. Integrated circuit implementation is benefited by the potential for signal sharing among input and output busses and a common control interface for all independent data streams.