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research-article

On the Lower Bound to the VLSI Complexity of Number Conversion from Weighted to Residue Representation

Published: 01 August 1993 Publication History

Abstract

A lower bound AT/sup 2/= Omega (n/sup 2/) for the conversion from positional to residue representation is derived according to VLSI complexity theory, and existing solutions for the same problem are briefly reviewed in the light of such a bound. A VLSI system is proposed, one that operates according to a pipeline scheme and works asymptotically emulating an optimal structure, independently of residue number system parameters. This solution has been applied to a design of specific size (64-b input stream), and it has been found that a single CMOS custom chip can implement the design with a throughput of one residue representation every 30-40 ns.

References

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  1. On the Lower Bound to the VLSI Complexity of Number Conversion from Weighted to Residue Representation

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        Published In

        cover image IEEE Transactions on Computers
        IEEE Transactions on Computers  Volume 42, Issue 8
        August 1993
        133 pages

        Publisher

        IEEE Computer Society

        United States

        Publication History

        Published: 01 August 1993

        Author Tags

        1. CMOS integrated circuits
        2. VLSI complexity
        3. VLSI.
        4. computational complexity
        5. digital arithmetic
        6. lower bound
        7. number conversion
        8. optimal structure
        9. pipeline scheme
        10. residue representation
        11. single CMOS custom chip
        12. weighted representation

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