Abstract
In order to fulfil Canada’s international disaster relief, humanitarian assistance, peacekeeping and peace enforcement roles, the Canadian Forces (CF) rely on a supply network to deploy and sustain its overseas missions. Warehousing, maintenance, transhipment and transportation activities are required to support missions. Currently, the CF supply network does not incorporate any permanent overseas depots. Since international needs and Canada’s roles have significantly evolved during the last decade, and given that supply network efficiency and robustness are critical for missions’ success, reengineering the CF supply network to consider the incorporation of permanent international prepositioning depots has become an important issue. This paper proposes an activity-based stochastic programming model to optimise the CF overseas supply network. It also shows how the model proposed can be used to improve the global reach of the CF.
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Notes
This quantity can be zero for some input products, and it is necessarily 1 for the unserviceable product p′=p U(p) being repaired. For the CF case considered, since there is a single repair activity, the goes-into factors g ap ′ p are provided by the repair quantities g p ′ p previously defined.
Capacity for storage nodes is often bounded by the space available (see 21) rather than directly by the platform's throughput. When this is the case, the capacity in (19) is replaced by an arbitrary large number but the constraints are still required to ensure that the relationship between throughput variables and platform selection variables is properly defined.
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Martel, A., Benmoussa, A., Chouinard, M. et al. Designing global supply networks for conflict or disaster support: the case of the Canadian Armed Forces. J Oper Res Soc 64, 577–596 (2013). https://doi.org/10.1057/jors.2012.65
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DOI: https://doi.org/10.1057/jors.2012.65