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Showing 1 to 9 of 9 for “"Physically Unclonable Functions"”.

  1. Techniques for design and implementation of physically unclonable functions

    Physically unclonable functions (PUFs) provide a basis for many security, and digital rights management protocols. PUFs exploit the unclonable and unique manufacturing variability of silicon devices to establish a secret. However, as we will demonstrate in this work, the classic delay-based PUF …

    rice Repository record for Techniques for design and implementation of physically unclonable functions (opens in a new tab)

  2. A system for multi-level authentication with physically unclonable functions

    We analyze deficiencies in existing Physically Unclonable Function (PUF) systems and protocols, and propose a new system of PUFs (SoP) that is numerically secure under extended attacker privileges and attack scenarios. Our proposed system uses a multi-level authentication scheme and employs …

    uiuc Repository record for A system for multi-level authentication with physically unclonable functions (opens in a new tab)

  3. Optimization of Physical Unclonable Function Protocols for Lightweight Processing

    Physically unclonable functions are increasingly used as security primitives for device identification and anti-counterfeiting. However, PUFs are associated with noise and bias which in turn affects its property of reliability and predictability. The noise is corrected using fuzzy extractors, but …

    vt Repository record for Optimization of Physical Unclonable Function Protocols for Lightweight Processing (opens in a new tab)

  4. Increasing the bit density of a quantum confinement physically unclonable function

    … study the recently proposed quantum confinement physically unclonable function by Roberts, et al. that utilises resonant tunnelling diodes (physical representation of a quantum well) and atomic scale imperfections for applications in cryptography and identification. Presently such entities rely …

    lancaster Repository record for Increasing the bit density of a quantum confinement physically unclonable function (opens in a new tab)

  5. Entropy Estimation for Arbiter PUF and Applications to Authenticated Key Exchange

    Physically Unclonable Functions (PUF) are hardware-based security primitives whose unique challenge and response behavior serves as a "fingerprint" for device authentication, key generation, and anti-counterfeiting. Modeling and estimating the entropy of PUF responses to random challenges is the …

    calgary Repository record for Entropy Estimation for Arbiter PUF and Applications to Authenticated Key Exchange (opens in a new tab)

  6. Characterizing Retention behavior of DDR4 SoDIMM

    … DRAM attribute can be considered a source of 'Physically Unclonable Functions' and is sought after in the Cryptography domain. This thesis aims to characterize the decay patterns of commercial DDR4 DRAM modules. I implemented a custom System On Chip on AMD/Xilinx's ZCU104 FPGA platform to …

    vt Repository record for Characterizing Retention behavior of DDR4 SoDIMM (opens in a new tab)

  7. APUF Faults: Testing, Diagnosing, and Salvaging

    Arbiter Physically Unclonable Functions (APUFs) are hardware security primitives that generate unique digital fingerprints for integrated circuits (ICs) by exploiting manufacturing randomness. Ideally, a good APUF production line is characterized by symmetry, or equal delay for each track pair from …

    uic

  8. Using imperfect semiconductor systems for unique identification

    … systems are known as Unique Objects (UNOs) and Physically Unclonable Functions (PUFs). The aim of the work in this thesis is to create a novel type of UNO/PUF that utilises the atomic‐scale uniqueness of semiconductor devices by measuring a macroscopic quantum property of the system. The …

    lancaster Repository record for Using imperfect semiconductor systems for unique identification (opens in a new tab)