Global Approaches to Environmental Management on Military Training Ranges. Tracey Temple
was detected slightly above background levels in soil and surface water, but below recommended threshold levels. Sampling of the stream identified no heightened levels of heavy metals suggesting that contamination is currently contained within the range. Due to low levels of contamination, it was recommended that training activities could continue with no immediate requirement for remediation.
References
[1] ISO - International Organization for Standardization 1996 ISO 14001 Environmental Management Systems—Specification with Guidance for Use (Geneva, Switzerland: International Organization for Standardization)
[2] ISO - International Organization for Standardization 2006 ISO 14040 International Standard Environmental management—Life cycle assessment—Principles and framework (Geneva, Switzerland: International Organisation for Standardization)
[3] Johnson M S and Salice C J 2009 Ecotoxicology of Explosives ed G I Sunahara, G Lotufo, R G Kuperman and J Hawari (CRC Press)
[4] Ryu H, Han J K, Jung J W, Bae B and Nam K 2007 Human health risk assessment of explosives and heavy metals at a military gunnery range Environ. Geochem. Health 29 259–69
[5] Pennington J C, Jenkins T F, Ampleman G, Thiboutot S and Brannon J M Technical report 2003 Distribution and Fate of Energetics on DoD Test and Training Ranges Interim Report 3 http://oai.dtic.mil/oai/oai?verb=getRecord&metadataPrefix=html&identifier=ADA417819
IOP Publishing
Global Approaches to Environmental Management on Military Training Ranges
Tracey J Temple and Melissa K Ladyman
Chapter 1
Scientific principles of environmental management
I Bortone, F Coulon, W Fawcett-Hirst, M Ladyman and T Temple
Military training ranges are essential for live-fire training; however, with increasingly stringent environmental legislation it is also necessary to ensure that the environmental impact of live-fire activities is mitigated and managed. The environmental impact of live-fire training includes noise nuisance, heavy metal contamination and land degradation. For a long time it was thought that explosive residue from live-fire training was limited as all materials would be consumed during detonation, but research has shown that a significant amount of explosive residue may be deposited during partial detonations and through unexploded ordnance. In addition, contamination of soil and groundwater resulting from explosive residue deposition at training ranges is now well documented. Therefore, knowledge of the explosives likely to be deposited at training ranges and their behaviour in the environment is essential in order to appropriately mitigate or manage their impact. This chapter outlines how simple conceptual models can be used to summarise the training range environment including soil types, geology, hydro-geology and topography in order to link training activities to potential receptors such as ecosystems, humans and animals. An overview of the impact of commonly used explosives in the environment, and how computational and experimental methods can be used to determine and predict the behaviour of contaminants in the environment is also given.
1.1 Introduction
Military training ranges are essential to maintaining defence capability and environmental issues need to be appropriately managed to ensure continuing legal compliance and training capacity [1]. Severe contamination incidents, such as groundwater contamination, arising from poorly managed sites may result in a limitation on activities such as use of particular munitions [2] or closure of the site. In addition, many training ranges may undergo a change of use, or release to the public, which under current law would require the site to be returned to its original state [3]. In some cases, the cost of remediation may be so great that it is more economical to continue to maintain