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Using quantum effects in nanomaterials for unique identification

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Using quantum effects in nanomaterials for unique identification. / Young, Robert James; Roberts, Jonny; Speed, Phillip.
In: SPIE Newsroom, 05.01.2016.

Research output: Contribution to Journal/MagazineJournal articlepeer-review

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Young RJ, Roberts J, Speed P. Using quantum effects in nanomaterials for unique identification. SPIE Newsroom. 2016 Jan 5. doi: 10.1117/2.1201512.006250

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Bibtex

@article{415b9b1f15cd43a8a1c1afed16fa0fbc,
title = "Using quantum effects in nanomaterials for unique identification",
abstract = "Authentication and identification are critical to information security systems. Traditionally, these processes are achieved with the use of secret keys that are stored in electronic memories, or with difficult-to-clone systems (e.g., fingerprints or holograms). The persistent development of technology, however, means that the barrier to cloning such systems is becoming lower. Moreover, counterfeiting, device spoofing, and identity fraud are formidable problems in all markets. The ideal solution, therefore, would be to produce a nano-fingerprint from the atomic arrangement of a structure embedded within a device. By shrinking down to the atomic scale, the challenge of cloning the system becomes as difficult as possible, i.e., the density of secure information is maximized and the number of resources required to read the fingerprint is minimized.",
author = "Young, {Robert James} and Jonny Roberts and Phillip Speed",
year = "2016",
month = jan,
day = "5",
doi = "10.1117/2.1201512.006250",
language = "English",
journal = "SPIE Newsroom",

}

RIS

TY - JOUR

T1 - Using quantum effects in nanomaterials for unique identification

AU - Young, Robert James

AU - Roberts, Jonny

AU - Speed, Phillip

PY - 2016/1/5

Y1 - 2016/1/5

N2 - Authentication and identification are critical to information security systems. Traditionally, these processes are achieved with the use of secret keys that are stored in electronic memories, or with difficult-to-clone systems (e.g., fingerprints or holograms). The persistent development of technology, however, means that the barrier to cloning such systems is becoming lower. Moreover, counterfeiting, device spoofing, and identity fraud are formidable problems in all markets. The ideal solution, therefore, would be to produce a nano-fingerprint from the atomic arrangement of a structure embedded within a device. By shrinking down to the atomic scale, the challenge of cloning the system becomes as difficult as possible, i.e., the density of secure information is maximized and the number of resources required to read the fingerprint is minimized.

AB - Authentication and identification are critical to information security systems. Traditionally, these processes are achieved with the use of secret keys that are stored in electronic memories, or with difficult-to-clone systems (e.g., fingerprints or holograms). The persistent development of technology, however, means that the barrier to cloning such systems is becoming lower. Moreover, counterfeiting, device spoofing, and identity fraud are formidable problems in all markets. The ideal solution, therefore, would be to produce a nano-fingerprint from the atomic arrangement of a structure embedded within a device. By shrinking down to the atomic scale, the challenge of cloning the system becomes as difficult as possible, i.e., the density of secure information is maximized and the number of resources required to read the fingerprint is minimized.

U2 - 10.1117/2.1201512.006250

DO - 10.1117/2.1201512.006250

M3 - Journal article

JO - SPIE Newsroom

JF - SPIE Newsroom

ER -