Multiply Constant-Weight Codes and the Reliability of Loop Physically Unclonable Functions
Yeow Meng Chee, Zouha Cherif, Jean-Luc Danger, Sylvain Guilley, Han, Mao Kiah, Jon-Lark Kim, Patrick Sol\'e, Xiande Zhang

TL;DR
This paper introduces multiply constant-weight codes to enhance the reliability of PUF responses, extending classical coding techniques and analyzing their bounds, rates, and asymptotic properties.
Contribution
It develops a new class of codes, derives Johnson bounds for them, and compares their rates to existing constant-weight codes, with asymptotic analysis.
Findings
Johnson bounds are asymptotically tight under certain conditions.
Multiply constant-weight codes have the same rates as constant-weight codes of similar parameters.
Asymptotic analysis confirms the efficiency of the new code constructions.
Abstract
We introduce the class of multiply constant-weight codes to improve the reliability of certain physically unclonable function (PUF) response. We extend classical coding methods to construct multiply constant-weight codes from known -ary and constant-weight codes. Analogues of Johnson bounds are derived and are shown to be asymptotically tight to a constant factor under certain conditions. We also examine the rates of the multiply constant-weight codes and interestingly, demonstrate that these rates are the same as those of constant-weight codes of suitable parameters. Asymptotic analysis of our code constructions is provided.
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Taxonomy
TopicsPhysical Unclonable Functions (PUFs) and Hardware Security · DNA and Biological Computing · VLSI and Analog Circuit Testing
