Application of area monitors and scintillating detectors in the development of CBRN defense reconnaissance vehicles

Authors

  • Thiago de Medeiros Silveira Silva Instituto de Defesa Química, Biológica, Radiológica e Nuclear Centro Tecnológico do Exército https://orcid.org/0000-0002-6800-8645
  • Ana Carolina Lodi Lobato Instituto Militar de Engenharia
  • Anne Karoline F. Mendonça Instituto Militar de Engenharia
  • Ary Machado de Azevedo Instituto Militar de Engenharia
  • Caio Cezar Pontes Instituto Militar de Engenharia
  • Domingos D'Oliveira Cardoso Instituto Militar de Engenharia
  • Marcelus Paulo Cruz Da Silva Instituto Militar de Engenharia
  • Augilmar Pereira Salazar Instituto Militar de Engenharia
  • Victor de Castro Vasconcelos Instituto Militar de Engenharia
  • Wallace Vallory Nunes Instituto Militar de Engenharia

DOI:

https://doi.org/10.15392/bjrs.v9i3.1698

Keywords:

Detectors, Scintillators, Vehicle, CBRN, Defense.

Abstract

This study describes the use of ionizing radiation detectors in a Brazilian Army reconnaissance vehicle (RV), used in area monitoring actions based on the occurrence of a radiological event. Two scintillating detectors, NaI and LaBr3, were used to carry out field measurements of surveying for different distances from a simulated detector position in the vehicle, in order to compare the energy spectra obtained in each measurement system. The Brazilian Army Technological Center (Centro Tecnológico do Exército - CTEx) region was chosen to carry out the measurements. The meteorological information was annotated to verify the conditions into which the experimental apparatus would be submitted. The results suggest that both the NaI and LaBr3 scintillating detector could be used in radiological emergency response RV, offering satisfactory responses in the gamma radiation detection. However, the NaI detector was chosen considering the wide network of technical assistance and its low operational cost. The relevance of this investigation shows the importance of planning responses in emergency situations and the influence of efficient instrumentation in the measurement processes.

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Author Biography

  • Thiago de Medeiros Silveira Silva, Instituto de Defesa Química, Biológica, Radiológica e Nuclear Centro Tecnológico do Exército

    Engenheiro Químico formado pelo IME em 2012

    Mestrando em Engenharia Nuclear (2021)

    Oficial do Exército Brasileiro

     

References

TAUHATA, L.; SALATI, I.P.A.; DI PRINZIO, R.; DI PRINZIO, A.R.; Radioproteção e Dosimetria: Fundamentos. 5. rev. Rio de Janeiro, R.J.: 2003. Disponível em: http://www.ird.gov.br/divulga/divulga1.htm. Acesso em: 05 Abril 2021.

DELLAMANO, J.C.; MARUMO, J.T.; SANCHES, M.P.; VICENTE, R.; BELLINTANI, S. Noções Básicas de Proteção Radiológica. São Paulo, S.P.: DDRH/DSN/IPEN, 2002

KNOLL, GLENN F; Radiation Detection and Measurement. 3rd ed.. New York, NY. 2000.

CERRITO, Lucio. Radiation and Detectors: Introduction to the physics of radiation and detection devices. 1. ed. London, UK: Springer InternationalPublishing, 2017. 217 p.

MURRAY, l. RAYMOND. Nuclear Energy. Butterworth Heineman, 5° edição, 1975. Cap.10.

TSOULFANIDIS, Nicholas et al.Measurment and Detection of Radiation. 2. ed. Washigton, DC: Taylor e Francis, 1995. 636 p.

HEATH, R.L.; HOFSTADTER R.; HUGHES E.B. Inorganic Scintillators - A Review of Techniques and Applications. North-Holland Publishing Co., 1979.

BAPTISTA, Alfredo. Equipamentos detectores de radiação e sua utilização. Curso de proteção e segurança radiológica em Radiografia Industrial, Lisboa, p. 1-44, 23 ago. 2020.

PHOTON IS OUR BUSINESS. Photomultiplier Tubes: Basics and Applications. 3. ed. [S. l.]: HamamatsuPhotonics K. K, 2007. 323 p.

XAVIER, A; Moro, J.T; Heilbron, P.F.L; Princípios Básicos de Segurança e Proteção Radiológica. 3a ed. Revisada. 2006 – Porto Alegre – UFRGS

MIRION TECHNOLOGIES. SpiR-ID Nai - Handheld Detection and Identification. USA 2014,

THERMO SCIENTIFIC. RIIDEye - Handheld Radiation Isotope Identifier. USA, 2012.

THERMO SCIENTIFIC. RadEye PRD/PRD-ER Personal Radiation Detector. USA, 2008.

CANBERRA INDUSTRIES. Model 802: Scintillation Detectors. USA: Canberra Industries, 2003. 9 p.

CANBERRA INDUSTRIES. Model 2005: Scintillation Preamplifier. USA: Canberra Industries, 2003. 21 p.

CANBERRA INDUSTRIES. Model 2007: PM Tube Base. USA: Canberra Industries, 2006. 14 p.

LIMA, C. A., 2006, Avaliação da Performance de Detectores Iodeto de Sódio NaI(Tl) em Centrais Nucleares – Dissertação de Mestrado, COPPE/UFRJ, RJ.

MILBRATH, B. D.; CHOATE, B. J.; FAST, J. E.; HENSLEY, W. K.; KOUZES, R. T.; SCHWEPPE, J. E. Comparison of LaBr3:Ce and NaI(Tl) Scintillators for Radio-Isotope Identification Devices. U. S. Department of Homeland Security - U.S. Customs and Border Protection and Domestic Nuclear Detection Office under U.S. Department of Energy Contract DE-AC05-76RL01830, 2006.

SAIZU1, Mirela Angela; CATA-DANIL, Gheorghe. Lanthanum Bromide Scintillation Detector For Gamma Spectrometry Applied In Internal Radioactive Contamination Measurements. U.P.B. Sci. Bull., Series A Vol. 73, Iss. 4, 2011.

ILTIS, A.; MAYHUGH, M.R.; MENGE, P.; ROSZA, C.M.; SELLES, O.; SOLOVYEV, V. Lanthanum halide scintillators: Properties and applications. Nucl.Instr.Meth. A vol. 563, 2006. 359-363 p.

Comissão Nacional de Energia Nuclear. CNEN-NE 5.01 - Transporte de Materiais Radioativos. 1988.

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Published

2021-09-20

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How to Cite

Application of area monitors and scintillating detectors in the development of CBRN defense reconnaissance vehicles. Brazilian Journal of Radiation Sciences, Rio de Janeiro, Brazil, v. 9, n. 3, 2021. DOI: 10.15392/bjrs.v9i3.1698. Disponível em: https://www.bjrs.org.br/revista/index.php/REVISTA/article/view/1698.. Acesso em: 4 may. 2024.

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