An 8-bit×8-bit signed two's complement pipelined multiplier megacell implemented in 1.6-\mu m single-poly, double-metal N-well CMOS is described. It is capable of throughputs of 230,000,000 multiplications/s at a clock frequency of 230 MHz, with a latency of 12 clock cycles. A half-bit level pipelined architecture, and the use of true single-phase clocked circuitry are the key features of this design. Simulation studies indicate that the multiplier dissipates 540 mW at 230 MHz. The multiplier cell has 5176 transistors, with dimensions of 1.5 mm×1.4 mm. This multiplier satisfies the need for very high-throughput multiplier cores required in DSP architectures
A digital multiplier is a common block in processors, and its speed has a significant impact on the ...
This paper presents a novel variable-latency multiplier architecture, suitable for implementation as...
Includes bibliographical references (pages 114-115)A new method of designing LSI multiplier is\ud pr...
An 8-bit×8-bit signed two's complement pipelined multiplier megacell implemented in 1.6-\mu m single...
Abstrucr-An 8 bit x 8 bit signed two’s complement pipelined multiDliers tvDicallv achieve latency on...
An 8 bit by 8 bit signed two's complement pipelined multiplier in 1.6$_\mu$m N well CMOS, capable of...
An 8 bit by 8 bit signed two's complement pipelined multiplier in 1.6$_\mu$m N well CMOS, capable of...
[[abstract]]This paper presents an 8x8bit pipelined multiplier operating at 320MHz under 0.5V supply...
Parallel multiplication schemes for VLSI have traditionally been chosen for their regular layout. Un...
A new two's complement serial multiplier based on a pipelined diagonal-wise interlaced structure is ...
A new two's complement serial multiplier based on a pipelined diagonal-wise interlaced structure is ...
An 8 × 8 pipelined parallel multiplier which uses the Dadda scheme is presented. The multiplier has ...
[[abstract]]This paper presents a 0.5-V ultra-low voltage multiplier. In order to achieve ultra-low ...
This paper describes a low-power 16x16-b parallel very large scale integration multiplier, designed ...
This paper describes a low-power 16x16-b parallel very large scale integration multiplier, designed ...
A digital multiplier is a common block in processors, and its speed has a significant impact on the ...
This paper presents a novel variable-latency multiplier architecture, suitable for implementation as...
Includes bibliographical references (pages 114-115)A new method of designing LSI multiplier is\ud pr...
An 8-bit×8-bit signed two's complement pipelined multiplier megacell implemented in 1.6-\mu m single...
Abstrucr-An 8 bit x 8 bit signed two’s complement pipelined multiDliers tvDicallv achieve latency on...
An 8 bit by 8 bit signed two's complement pipelined multiplier in 1.6$_\mu$m N well CMOS, capable of...
An 8 bit by 8 bit signed two's complement pipelined multiplier in 1.6$_\mu$m N well CMOS, capable of...
[[abstract]]This paper presents an 8x8bit pipelined multiplier operating at 320MHz under 0.5V supply...
Parallel multiplication schemes for VLSI have traditionally been chosen for their regular layout. Un...
A new two's complement serial multiplier based on a pipelined diagonal-wise interlaced structure is ...
A new two's complement serial multiplier based on a pipelined diagonal-wise interlaced structure is ...
An 8 × 8 pipelined parallel multiplier which uses the Dadda scheme is presented. The multiplier has ...
[[abstract]]This paper presents a 0.5-V ultra-low voltage multiplier. In order to achieve ultra-low ...
This paper describes a low-power 16x16-b parallel very large scale integration multiplier, designed ...
This paper describes a low-power 16x16-b parallel very large scale integration multiplier, designed ...
A digital multiplier is a common block in processors, and its speed has a significant impact on the ...
This paper presents a novel variable-latency multiplier architecture, suitable for implementation as...
Includes bibliographical references (pages 114-115)A new method of designing LSI multiplier is\ud pr...