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3D simulation as a tool for improving the safety culture during remediation work at Andreeva Bay.

https://arctichealth.org/en/permalink/ahliterature265458
Source
J Radiol Prot. 2014 Dec;34(4):755-73
Publication Type
Article
Date
Dec-2014
Author
K. Chizhov
M K Sneve
I. Szoke
I. Mazur
N K Mark
I. Kudrin
N. Shandala
A. Simakov
G M Smith
A. Krasnoschekov
A. Kosnikov
I. Kemsky
V. Kryuchkov
Source
J Radiol Prot. 2014 Dec;34(4):755-73
Date
Dec-2014
Language
English
Publication Type
Article
Keywords
Decontamination - methods
Hazardous Waste Sites
Imaging, Three-Dimensional - methods
Models, organizational
Norway
Organizational Culture
Radiation Monitoring - methods
Radiation Protection - methods
Radioactive Waste - prevention & control
Russia
Safety Management - organization & administration
Abstract
Andreeva Bay in northwest Russia hosts one of the former coastal technical bases of the Northern Fleet. Currently, this base is designated as the Andreeva Bay branch of Northwest Center for Radioactive Waste Management (SevRAO) and is a site of temporary storage (STS) for spent nuclear fuel (SNF) and other radiological waste generated during the operation and decommissioning of nuclear submarines and ships. According to an integrated expert evaluation, this site is the most dangerous nuclear facility in northwest Russia. Environmental rehabilitation of the site is currently in progress and is supported by strong international collaboration. This paper describes how the optimization principle (ALARA) has been adopted during the planning of remediation work at the Andreeva Bay STS and how Russian-Norwegian collaboration greatly contributed to ensuring the development and maintenance of a high level safety culture during this process. More specifically, this paper describes how integration of a system, specifically designed for improving the radiological safety of workers during the remediation work at Andreeva Bay, was developed in Russia. It also outlines the 3D radiological simulation and virtual reality based systems developed in Norway that have greatly facilitated effective implementation of the ALARA principle, through supporting radiological characterisation, work planning and optimization, decision making, communication between teams and with the authorities and training of field operators.
PubMed ID
25254659 View in PubMed
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Real-time 3D radiation risk assessment supporting simulation of work in nuclear environments.

https://arctichealth.org/en/permalink/ahliterature260107
Source
J Radiol Prot. 2014 Jun;34(2):389-416
Publication Type
Article
Date
Jun-2014
Author
I. Szoke
M N Louka
T R Bryntesen
J. Bratteli
S T Edvardsen
K K RøEitrheim
K. Bodor
Source
J Radiol Prot. 2014 Jun;34(2):389-416
Date
Jun-2014
Language
English
Publication Type
Article
Keywords
Algorithms
Body Burden
Computer simulation
Computer Systems
Imaging, Three-Dimensional - methods
Models, Statistical
Norway
Nuclear Power Plants
Occupational Exposure - analysis
Radiation Monitoring - methods
Radiation Protection - methods
Risk Assessment - methods
Software
User-Computer Interface
Abstract
This paper describes the latest developments at the Institute for Energy Technology (IFE) in Norway, in the field of real-time 3D (three-dimensional) radiation risk assessment for the support of work simulation in nuclear environments. 3D computer simulation can greatly facilitate efficient work planning, briefing, and training of workers. It can also support communication within and between work teams, and with advisors, regulators, the media and public, at all the stages of a nuclear installation's lifecycle. Furthermore, it is also a beneficial tool for reviewing current work practices in order to identify possible gaps in procedures, as well as to support the updating of international recommendations, dissemination of experience, and education of the current and future generation of workers.IFE has been involved in research and development into the application of 3D computer simulation and virtual reality (VR) technology to support work in radiological environments in the nuclear sector since the mid 1990s. During this process, two significant software tools have been developed, the VRdose system and the Halden Planner, and a number of publications have been produced to contribute to improving the safety culture in the nuclear industry.This paper describes the radiation risk assessment techniques applied in earlier versions of the VRdose system and the Halden Planner, for visualising radiation fields and calculating dose, and presents new developments towards implementing a flexible and up-to-date dosimetric package in these 3D software tools, based on new developments in the field of radiation protection. The latest versions of these 3D tools are capable of more accurate risk estimation, permit more flexibility via a range of user choices, and are applicable to a wider range of irradiation situations than their predecessors.
PubMed ID
24727389 View in PubMed
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