Use of virtual reality on radioactive waste deposits development

Autores

  • Victor Gonçalves Freitas Instituto de Engenharia Nuclear
  • Antônio Carlos Mól IEN/CNEN
  • Roberto Schirru PEN/UFRJ

Palavras-chave:

Virtual reality, Radiation, Radioactive waste

Resumo

One of the biggest challenges in the nuclear area are still nuclear radioactive waste generated in the
various applications of this energy, all these wastes are stored in tanks that are frequently monitored and
restructured to better utilization of the same. Considering the routine process of this work and due to the
seriousness of the issue, are very useful methods and techniques to predict the radiation dose absorbed
by the worker in performing this task. One of the possible ways to accomplish advance planning of these
activities is through the use of computer simulators. In this context, this paper presents a methodology
based on virtual reality, in order to develop a radioactive waste virtual deposit in order to enable simulations
of virtual relocation in these deposits. With the development of deposit becomes possible to
simulate virtual/train allocation and reallocation of low and medium level waste materials, since the
possibility of displacement for virtual objects and dynamic calculation of the radiation rate in this
environment. Through virtual simulations is possible to know the dose accumulated by virtual person in
procedures performed in the virtual environment, since each virtual object in the tank is a source of
radiation. As a first case study was modeled virtually the nuclear waste repository located at the Instituto
de Engenharia Nuclear e IEN/CNEN. This first model was evaluated according to the realism of the
environment and computational radiation modeling. The results for the modeling of the virtual environment
and the modeling of radiation, proved satisfactory, as the good approach to be compared with
the real environment. Therefore this research contributes to show the great potential of virtual simulation
tools in the training operation of nuclear facilities, avoiding physical immersion in higher levels
radiation.

Referências

Aukstakalnis, S., Blatner, D., 1992. Silicon Mirage: the Art and Science of Virtual Reality, Berkeley, CA. Badler, N.I., 2002. LiveActor: A Virtual Training Environment with Reactive Embodied Agents. Workshop on Intelligent Human Augmentation and Virtual Environments. University of North Carolina at Chapel Hill (October).

Blowers, A., Lowry, D., Solomon, B.D., 1991. The International Politics of Nuclear Waste. Croom Helm, London.

Burdea, G., Coiffet, P., 2003a. Virtual Reality Technology. John Wiley & Sons.

Burdea, G.C., Coiffet, P., 2003b. Virtual Reality Technology. second ed. Wiley-IEEE Press, Nova Jérsei.

Carvalho, Paulo Victor Rodrigues de, Benchekroun, Tahar-Hakim, Gomes, Jose Orlando, 2012. Analysis of information exchange activities to actualize and validate situation awareness during shift changeovers in nuclear power plants. Hum. Fact. Ergon. Manuf. 22, 130e144.

Chatam, R.E., 2007. Games for Training 50(7). Communications of the Association for Computing Machinery (CACM), pp. 36e43.

Corti, K., 2006. Games-based Learning; a Serious Business Application. PIXELearning Limited. www.pixelearning.com/docs/games_basedlearning_pixelearning.

pdf.

Freitas, Victor Gonçalves G., Mól, Antônio Carlos A., Pereira, Cláudio Márcio N.A., Jorge, Carlos Alexandre F., 2011a. Radiation dose rate map interpolation in nuclear plants using neural networks and virtual reality techniques. Ann. Nucl. Energy 38, 705e712.

Freitas, V.G.G., Mol, A.C.A., Santos, A.C.E., Pereira, C.M.N.A., 2011b. Mobile robotic system for mapping dose. In: International Nuclear Atlantic Conference e INAC 2011, 2011, Belo Horizonte. International Nuclear Atlantic Conference e INAC 2011.

Hajek, B., Kang, K., Lee, Y., Shin, Y.J., 2004. Internet virtual reality environment for simulating, predicting, and minimizing worker radiation exposure. In: American Nuclear Society’s 4th International Topical Meeting on Nuclear Power Plant Instrumentation and Human Machine Interface Technologies (NPIC & HMIT 2004), Columbus, Ohio, September 19e22.

ICRP Publication 60, 1991. Recommendations of the International Commission on Radiological Protection.

Iguchi, Y., Louka, M.N., Johnsen, T., 2004. VRdose: an exposure dose evaluation system based on virtual reality technology current status and future possibilities. In: Proceedings of 2004 Enlarged Halden Programme Group Meeting, Halden, Norway.

International Atomic Energy Agency, 1999a. Near Surface Disposal of Radioactive Waste. In: Safety Standards Series No. WS-R-1. IAEA, Vienna.

International Atomic Energy Agency, 1999b. Safety Assessment for Near Surface Disposal of Radioactive Waste. In: Safety Guide No. WS-G-1.1. IAEA, Vienna.

International Atomic Energy Agency, 2002. Scientific and Technical Basis for the Near Surface Disposal of Low and Intermediate Level Waste. Technical Reports Series No. 412. IAEA, Vienna.

Jacobson, J., Lewis, M., 2005. Game engine virtual reality with CaveUT. Computer 38 (4), 79e82.

Jain, S., McLean, C., 2005. Integrated simulation and gaming architecture for incident management training. available online at:. In: Kuhl, M.E., Steiger, N.M.,

Armstrong, F.B., Joines, J.A. (Eds.), Proceedings of the 37th Winter Simulation Conference, Orlando, Florida, December 47, pp. 904e913 www.informs-sim. org/wsc05papers/106.pdf.

Luquetti Dos Santos, Isaac J.A., Gatto, Leandro Barbosa S., Mól, Antônio Carlos A., Jorge, Carlos Alexandre F., Legey, Ana Paula, 2013. Virtual simulation of a nuclear power plant’s control room as a tool for ergonomic evaluation. Progr. Nucl. Energy (New Series) 64, 8e15.

Mól, A.C.A., Jorge, C.A.F., Couto, P.M., Augusto, S.C., Cunha, G.G., Landau, L., 2009. Virtual environments simulation for dose assessment in nuclear plants. Progr. Nucl. Energy 51 (2), 382e387.

Ohga, Y., Fukuda, M., Shibata, K., Kawakami, T., Matsuzaki, T., 2005. A system for the calculation and visualisation of radiation field for maintenance support in nuclear power plants. Radiat. Protect. Dosimetry 116 (1e4), 592e596.

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Publicado

2015-12-03

Como Citar

Freitas, V. G., Mól, A. C., & Schirru, R. (2015). Use of virtual reality on radioactive waste deposits development. Instituto De Engenharia Nuclear: Progress Report, (2), 26. Recuperado de https://revistas.ien.gov.br/index.php/ienprogressreport/article/view/143

Edição

Seção

Nuclear Chemistry and Radiochemistry