Title
Instruction set extensions for the advanced encryption standard on a multithreaded software defined radio platform
Abstract
Software-defined radio (SDR) is an emerging technology that facilitates having multiple wireless communication protocols on one device. Previous work has shown that current wireless communication protocols can run on this class of device while consuming significant processing power. Next generation wireless networks require speeds in excess of 50 Mbps. Some of the fastest software implementations of the advanced encryption standard (AES) only achieve 20 Mbps on our reference platform. In order to have secure software-defined radio, the security processing gap must be addressed. This paper presents instruction set architecture (ISA) extensions for the sandblaster digital signal processor (DSP). The sandblaster DSP is a multithreaded processor for SDR that issues multiple operations each cycle and supports vector operations. Our proposed ISA extensions and hardware designs provide significant performance improvements for AES cryptography and should also work well with other types of embedded processors.
Year
DOI
Venue
2010
10.1504/IJHPSA.2010.034541
IJHPSA
Keywords
Field
DocType
instruction set extension,advanced encryption standard,aes,consuming significant processing power,software defined radio,next generation wireless network,software-defined radio,radio platform,security,current wireless communication protocol,previous work,aes cryptography,hardware design.,instruction set ex- tensions,multithreaded processor,multithreaded software,multiple wireless communication protocol,issues multiple operation,embedded processor,multithreaded,wireless network,multiplication operator,wireless networks,isa,emerging technology,support vector,sdr,instruction set architecture,wireless communication,digital signal processing
Wireless network,Wireless,Computer science,Cryptography,Software-defined radio,Advanced Encryption Standard,Instruction set,Parallel computing,Real-time computing,Encryption,Embedded system,Microarchitecture
Journal
Volume
Issue
Citations 
2
3/4
2
PageRank 
References 
Authors
0.38
17
3
Name
Order
Citations
PageRank
Christipher Jenkins120.38
Michael Schulte2548.18
John Glossner314122.12