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Configurable
Booth
Multiplier
By:
pushpa
Topics
Introduction Definition
Booth-r
representation
Booth-r
Multiplication
FPGA
Implementation of
the Booth-1
Multiplier
Arrangement of
CLA in Booth
Multiplier
Advantages Disadvantages Applications Conclusion
References
Introduction
With rapid developments in field of signal processing, control systems and other computer applications,
arithmetic circuits mainly multipliers are becoming very important.
To design high performance handheld gadgets, circuit designs must be optimized for area, power and
timing. All the three tenets of VLSI design: area, power and timing must be given attention during
design.
Here the focus is on designing booth multipliers with different adder architectures and their ASIC
implementation.
Booth multipliers are designed using CLA, RCA and CSA adders. Area, power and timing analysis of
different designs
Definition
• -Consider an integer y whose 2’s
complement representation is xn-1 xn-2
…. x0 and define
• y0 = -x0,
• y1 = -x1 + x0,
• y2 = -x2 + x1,
• .. .
• .. .
• yn-1 = -xn-1 + xn-2;
• Then by multiplying the first equation by
20, the second by 21, the third one by 22,
and so on, and adding up the n equations,
the following relation is obtained:
•
• The vector (yn-1 yn-2 …. y0) whose
components yi belong to {-1, 0, 1} is the
Booth-1 representation of x and
•
FPGA
Implementation
of the Booth-1
Multiplier
Arrangement of CLA in
Booth Multiplier
• The worst-case delay is of a two-level CLA is
given by the expression
Advantages
For faster computation speed, the longer operand should be
taken as input-A, while for less area utilization and fewer
operating units, the shorter operand should be taken as input-
A.
The configurability of the IVS multiplier avoids unnecessary
computing cycles and dynamic energy once the operands are
not full-64 bits, which can significantly reduce the glitching
activity, but it requires additional control circuitry to generate
the gated clocks for various registers in the implementation.
Reduces the power consumption at comparable speed
Disadvantages
• it does not provide details of the adder
logic used, which plays a significant role in
the multiplier delay, area and the power
consumption
Conclusion

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pushpa.pptx

  • 1.
  • 3. Topics Introduction Definition Booth-r representation Booth-r Multiplication FPGA Implementation of the Booth-1 Multiplier Arrangement of CLA in Booth Multiplier Advantages Disadvantages Applications Conclusion References
  • 4. Introduction With rapid developments in field of signal processing, control systems and other computer applications, arithmetic circuits mainly multipliers are becoming very important. To design high performance handheld gadgets, circuit designs must be optimized for area, power and timing. All the three tenets of VLSI design: area, power and timing must be given attention during design. Here the focus is on designing booth multipliers with different adder architectures and their ASIC implementation. Booth multipliers are designed using CLA, RCA and CSA adders. Area, power and timing analysis of different designs
  • 5. Definition • -Consider an integer y whose 2’s complement representation is xn-1 xn-2 …. x0 and define • y0 = -x0, • y1 = -x1 + x0, • y2 = -x2 + x1, • .. . • .. . • yn-1 = -xn-1 + xn-2; • Then by multiplying the first equation by 20, the second by 21, the third one by 22, and so on, and adding up the n equations, the following relation is obtained: • • The vector (yn-1 yn-2 …. y0) whose components yi belong to {-1, 0, 1} is the Booth-1 representation of x and •
  • 7. Arrangement of CLA in Booth Multiplier • The worst-case delay is of a two-level CLA is given by the expression
  • 8. Advantages For faster computation speed, the longer operand should be taken as input-A, while for less area utilization and fewer operating units, the shorter operand should be taken as input- A. The configurability of the IVS multiplier avoids unnecessary computing cycles and dynamic energy once the operands are not full-64 bits, which can significantly reduce the glitching activity, but it requires additional control circuitry to generate the gated clocks for various registers in the implementation. Reduces the power consumption at comparable speed
  • 9. Disadvantages • it does not provide details of the adder logic used, which plays a significant role in the multiplier delay, area and the power consumption