Fixed Width Modified Booth Multiplier for Lossy Application

Jeevan Battini

ISBN 10: 6205498510 / ISBN 13: 9786205498514

Published by LAP LAMBERT Academic Publishing, 2022

About this Item

nach der Bestellung gedruckt Neuware - Printed after ordering - The fixed-width multiplier is attractive to many multimedia and digital signal processing systems which are desirable to maintain a fixed format and allow a little accuracy loss to output data. This project presents the design of high-accuracy fixed-width modified Booth multipliers. To reduce the truncation error, first slightly modify the partial product matrix of Booth multiplication and then derive an effective error compensation function that makes the error distribution be more symmetric to and centralized in the error equal to zero, leading the fixed-width modified Booth multiplier to very small mean and mean-square errors. In addition, a simple compensation circuit mainly composed of the simplified sorting network is also proposed. Compared to the previous circuits, the proposed error compensation circuit can achieve a tiny mean error and a significant reduction in mean-square error while maintaining the approximate hardware overhead.

Seller Inventory # 9786205498514

Bibliographic Details

• Title: Fixed Width Modified Booth Multiplier for Lossy Application
• Publisher: LAP LAMBERT Academic Publishing
• Publication Date: 2022
• Language: English
• ISBN 10: 6205498510
• ISBN 13: 9786205498514
• Binding: Taschenbuch
• Condition: Neu
• Dimensions: 220W x 150H x 5D millimeters 220 millimeters width by 150 millimeters height by 5 millimeters depth
• Weight: 131 grams

About this title

Synopsis

The fixed-width multiplier is attractive to many multimedia and digital signal processing systems which are desirable to maintain a fixed format and allow a little accuracy loss to output data. This project presents the design of high-accuracy fixed-width modified Booth multipliers. To reduce the truncation error, first slightly modify the partial product matrix of Booth multiplication and then derive an effective error compensation function that makes the error distribution be more symmetric to and centralized in the error equal to zero, leading the fixed-width modified Booth multiplier to very small mean and mean-square errors. In addition, a simple compensation circuit mainly composed of the simplified sorting network is also proposed. Compared to the previous circuits, the proposed error compensation circuit can achieve a tiny mean error and a significant reduction in mean-square error while maintaining the approximate hardware overhead.