A Logic Level Design Methodology for a Secure DPA Resistant ASIC or FPGA Implementation
Kris Tiri, Ingrid M.R. Verbauwhede
Abstract
Kris Tiri, Ingrid M.R. Verbauwhede
Abstract
This paper describes a novel design methodology to implement a secure DPA resistant crypto processor. The methodology is suitable for integration in a common automated standard cell ASIC or FPGA design flow. The technique combines standard building blocks to make `new' compound standard cells, which have a close to constant power consumption. Experimental results indicate a 50 times reduction in the power consumption fluctuations.
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This paper describes a novel design methodology to implement a secure DPA resistant crypto processor. The methodology is suitable for integration in a common automated standard cell ASIC or FPGA design flow. The technique combines standard building blocks to make `new' compound standard cells, which have a close to constant power consumption. Experimental results indicate a 50 times reduction in the power consumption fluctuations.
Key concepts: Application-specific integrated circuit, Field-programmable gate array, Embedded system, Computer science, Design flow, Power consumption, Logic synthesis, System on a chip