30 citations · 57 across the 6 of their papers we have counts for
6 papers
Same Coverage, Less Bloat: Accelerating Binary-only Fuzzing with Coverage-preserving Coverage-guided Tracing
Stefan Nagy, Anh Nguyen-Tuong, Jason D. Hiser +2
Coverage-guided fuzzing's aggressive, high-volume testing has helped reveal tens of thousands of software security flaws. While executing billions of test cases mandates fast code…
Fuzzing Hardware Like Software
Timothy Trippel, Kang G. Shin, Alex Chernyakhovsky +3
Hardware flaws are permanent and potent: hardware cannot be patched once fabricated, and any flaws may undermine any software executing on top. Consequently, verification time domi…
Silicon Dating
Harrison Williams, Alexander Lind, Kishankumar Parikh +1
In order to service an ever-growing base of legacy electronics, both government and industry customers must turn to third-party brokers for components in short supply or discontinu…
An Extensible Framework for Quantifying the Coverage of Defenses Against Untrusted Foundries
Timothy Trippel, Kang G. Shin, Kevin B. Bush +1
The transistors used to construct Integrated Circuits (ICs) continue to shrink. While this shrinkage improves performance and density, it also reduces trust: the price to build lea…
T-TER: Defeating A2 Trojans with Targeted Tamper-Evident Routing
Timothy Trippel, Kang G. Shin, Kevin B. Bush +1
Since the inception of the Integrated Circuit (IC), the size of the transistors used to construct them has continually shrunk. While this advancement significantly improves computi…
Full-speed Fuzzing: Reducing Fuzzing Overhead through Coverage-guided Tracing
Stefan Nagy, Matthew Hicks
Of coverage-guided fuzzing's three main components: (1) testcase generation, (2) code coverage tracing, and (3) crash triage, code coverage tracing is a dominant source of overhead…