Journal of Loss Prevention in the Process Industries
A new practical approach to risk management for underground mining project in Quebec
Introduction
The mining sector has been experiencing a period of strong growth over the past few years. Mining companies and subcontractors (construction, consulting engineers, equipment suppliers, etc.) are all benefiting from renewed exploration, development and start-ups (Schmouker, 2011). Governments of countries in which these projects are underway view the current boom as a lever for helping the economy out of the recession that has been hindering economies around the world for at least as many years (Humphrey, 2011). These countries, including Canada, pin much hope on the contribution of mining to economic recovery and have put many projects on the fast track by contributing to innovation and the promotion of mining entrepreneurship (e.g. MRNF, 2012).
Canada is a leader among mining nations, world leader in the production of potash and uranium, second producer of nickel and cobalt and third in extraction of several other metals (The Canadian Mining Journal, 2008). Like several other Canadian provinces, Quebec is benefiting from the current development of the mining industry, with numerous high-potential mineral and metal deposits, including gold, nickel, cobalt, zinc, platinum, iron, copper, lithium, vanadium and rare-earth elements (Quebec Government, 2011). This industry contributes an estimated 2.7% of the provincial GDP (QMA and QMEA, 2010, 28 p.), a figure growing in view of the number of mining projects underway in the context of the Plan Nord® program. There are currently 11 new projects well into the developmental phase (Rousseau, 2011).
A territory twice the size of France has been thus marked for new mining projects (Fig. 1). The Plan Nord® represents investment potential valued at $80 billion, of which $33 billion will be earmarked for the mining sector, related industries and workers, including roads, housing, transportation, schools, health, telecommunications, airports and so on (Rousseau, 2011).
The development of the mining industry in sparsely populated areas lacking infrastructures poses several challenges, risks and uncertainties associated with overcoming long distances, appealing to an ageing labour force, recruitment, training and keeping workers, and availability of subcontractors and suppliers (CSMOM, 2012; Doggett, 2007; Kral, 2006). Starting up several projects at the same time in a given region requires careful planning and huge efforts from both the business community and public authorities. Poor synchronisation between the development of mining projects and of the required infrastructures and labour can lead to early failure. Interruption of projects would have province-wide political and economic fallout and is not an acceptable risk. The mining industry itself will not agree to begin activities in a climate of uncertainty, given the financial burden and complexity of the projects being considered (Chinbat & Takakuwa, 2009). In addition, public pressure to ensure safe and responsible mining of deposits as well as economic benefit to the taxpayer is huge and adds considerably to the challenges of any business or government contemplating such an undertaking.
In an effervescent economy, mining companies must identify and implement risk and uncertainty monitoring and control strategies. The mining industry must also adapt and implement major measures in order to deal with a variety of problems and challenges (e.g. Rousseau, 2011). Concerns with productivity and the advantages of using innovative equipment and new methods of extraction must not be examined only from an economic perspective, nor should personnel requirements be evaluated only in terms of operational indicators. Interdisciplinary and participative evaluation of operational needs and activities throughout all project phases reduce the likelihood of overlooking relevant risks (Pal & Dewan, 2009). A mining project is by nature very complex and marked by numerous interactions between endogenous as well as exogenous factors, thus requiring major efforts in order to eliminate risks that threaten to delay or block the achievement of goals (Badri, Nadeau, & Gbodossou, 2011).
Systematic management of risks and uncertainties remains the most effective means of ensuring maximum safety of a mining project and covering all phases of the project life cycle (e.g. Orsulak, Kecojevic, Grayson, & Nieto, 2010). For increased effectiveness, risk management should go beyond technical and environmental feasibility studies and take into consideration several types of threats often neglected, underestimated or hidden because of the complexities of the industrial context. Setting and achieving such objectives will not only improve the social capital and image of the industry, it will also increase feelings of security among workers, businesses and surrounding communities as well as throughout the mining sector in general.
This article aims to promote the use of a new practical approach to risk management in underground goldmines in Quebec. New concepts developed, validated and utilized in open-pit mining have been adapted to underground mining. This work identifies limitations, proposes improvements to implementation and considers opportunities expanding the range of applicability. This work is part of a larger research project with the aim of devising an approach suitable for managing practically all types of risks associated with mining projects.
Section 2 reviews the particularities and challenges in the mining industry and discusses risk management as well as several methods thereof in mining companies. Section 3 presents the research methodology and describes the proposed practical approach to risk management. The results are presented in Section 4, while Section 5 contains discussion of the value and limitations of the approach. Section 6 contains a summary of the findings as well as the conclusion.
Section snippets
The current situation
Management of mining projects is often influenced by several factors, which may be internal or external to the organization. These factors complicate the achievement of the objectives and add constraints to the daily management of operations. Among the most notable are (1) project complexity, in particular scale, duration, budget, number of suppliers and subcontractors (Chinbat & Takakuwa, 2009); (2) variability, in particular of equipment, worker experience, skill and geographic origin,
Research continuity
This article represents the continuation of a three-year research project of which the aim is to integrate OHS into risk management in mining projects in Quebec. The work began by reviewing the literature to evaluate the relative importance of OHS in risk management in industrial projects in several fields (Badri, Gbodossou, & Nadeau, 2012a). This overview of industrial practices and research revealed the need to create or adapt methods in order to deal with constraints associated with the
Scope of the intervention
The industrial partner has been extracting gold from an underground mine for several years. The principal aim of the mission is to identify effective means of integrating OHS into project risk management. The proposed approach has been tested previously in an open-pit mine (Badri et al., 2011). This change in context will test model adaptability in anticipation of extending its use to all goldmines in the province of Quebec.
The company currently operates new deposits in the same underground
Discussion
It should be noted that the OHS database created for the underground mine is almost identical to the one used for the open-pit mine. This suggests that the identified hazards are applicable, with a few adjustments, to goldmines in general. There were some discrepancies due to process and procedure characteristics and to the type of mine as well as to differences in perception of the consequences of hazards by the workers. The managers and workers in the underground mine feared fire the most. In
Conclusion
This article presents a novel practical approach to risk management applicable to mining projects. The aim of the study is to begin the gradual introduction of such an approach into goldmines throughout the province of Quebec. The study was carried out within a comprehensive research program intended to devise a method of managing practically all risks in mining projects and involved adapting new concepts developed in the context of open-pit gold mining to the underground context.
Thanks to
Acknowledgements
The authors would like to acknowledge the mining company for its willingness and motivation to collaborate actively with the researchers and for allowing us to observe the underground mining operations. They also thank the managers and workers for their involvement and valuable discussion throughout the study.
The authors thank the referees for their valuable comments and suggestions to improve the quality of the paper.
This research received financial support from Fonds de recherche du Québec –
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