Quantum cascade laser-based substance detection: approaching the quantum noise limit

Peter Kuffner; Kathryn Conroy; T Boyson; Greg Milford; Mohamed Mabrok; A Kallapur; I Petersen; M Calzada; T Spence; Kenneth Kirkbride; C Harb

doi:10.1117/12.886395

Quantum cascade laser-based substance detection: approaching the quantum noise limit

Peter Kuffner, Kathryn Conroy, T Boyson, Greg Milford, Mohamed Mabrok, A Kallapur, I Petersen, M Calzada, T Spence, Kenneth Kirkbride, C Harb

Research output: Contribution to conference › Paper › peer-review

2 Citations (Scopus)

Abstract

A consortium of researchers at University of New South Wales (UNSW@ADFA), and Loyola University New Orleans (LU NO), together with Australian government security agencies (e.g., Australian Federal Police), are working to develop highly sensitive laser-based forensic sensing strategies applicable to characteristic substances that pose chemical, biological and explosives (CBE) threats. We aim to optimise the potential of these strategies as high-throughput screening tools to detect prohibited and potentially hazardous substances such as those associated with explosives, narcotics and bio-agents.

Original language	English
DOIs	https://doi.org/10.1117/12.886395
Publication status	Published - 2011
Event	Next-Generation Spectroscopic Technologies IV - Duration: 25 Apr 2011 → …

Conference

Conference	Next-Generation Spectroscopic Technologies IV
Period	25/04/11 → …

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10.1117/12.886395

Cite this

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abstract = "A consortium of researchers at University of New South Wales (UNSW@ADFA), and Loyola University New Orleans (LU NO), together with Australian government security agencies (e.g., Australian Federal Police), are working to develop highly sensitive laser-based forensic sensing strategies applicable to characteristic substances that pose chemical, biological and explosives (CBE) threats. We aim to optimise the potential of these strategies as high-throughput screening tools to detect prohibited and potentially hazardous substances such as those associated with explosives, narcotics and bio-agents.",

author = "Peter Kuffner and Kathryn Conroy and T Boyson and Greg Milford and Mohamed Mabrok and A Kallapur and I Petersen and M Calzada and T Spence and Kenneth Kirkbride and C Harb",

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AU - Kuffner, Peter

AU - Conroy, Kathryn

AU - Boyson, T

AU - Milford, Greg

AU - Mabrok, Mohamed

AU - Kallapur, A

AU - Petersen, I

AU - Calzada, M

AU - Spence, T

AU - Kirkbride, Kenneth

AU - Harb, C

PY - 2011

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N2 - A consortium of researchers at University of New South Wales (UNSW@ADFA), and Loyola University New Orleans (LU NO), together with Australian government security agencies (e.g., Australian Federal Police), are working to develop highly sensitive laser-based forensic sensing strategies applicable to characteristic substances that pose chemical, biological and explosives (CBE) threats. We aim to optimise the potential of these strategies as high-throughput screening tools to detect prohibited and potentially hazardous substances such as those associated with explosives, narcotics and bio-agents.

AB - A consortium of researchers at University of New South Wales (UNSW@ADFA), and Loyola University New Orleans (LU NO), together with Australian government security agencies (e.g., Australian Federal Police), are working to develop highly sensitive laser-based forensic sensing strategies applicable to characteristic substances that pose chemical, biological and explosives (CBE) threats. We aim to optimise the potential of these strategies as high-throughput screening tools to detect prohibited and potentially hazardous substances such as those associated with explosives, narcotics and bio-agents.

U2 - 10.1117/12.886395

DO - 10.1117/12.886395

M3 - Paper

T2 - Next-Generation Spectroscopic Technologies IV

Y2 - 25 April 2011

ER -

Quantum cascade laser-based substance detection: approaching the quantum noise limit

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