Social License to Operate in Mining: Present Views and Future Trends

被引:29
作者
Komnitsas, Konstantinos [1 ]
机构
[1] Tech Univ Crete, Sch Mineral Resources Engn, GR-73100 Khania, Greece
来源
RESOURCES-BASEL | 2020年 / 9卷 / 06期
关键词
mine of the future; landfill mining; supply of critical metals; waste management; LIFE-CYCLE ASSESSMENT; ENVIRONMENTAL-MANAGEMENT; CRITICAL METALS; RISK-ASSESSMENT; SMALL-SCALE; PERSPECTIVES; SUSTAINABILITY; PRECONDITIONS; REFLECTIONS; COMMUNITIES;
D O I
10.3390/resources9060079
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
The social license to operate (SLO) is an informal social contract that aims to bridge the gap among the views of the most important stakeholders involved in mining activities. The novelty of this paper lies in the fact that it discusses the current situation and the future prospects of granting a SLO, mainly at the European Union (EU) level, by considering the mine of the future, in terms of deep sea and landfill mining, and the criticality of raw materials that are required by high tech products as well as by emerging and green technologies. Also, it highlights the factors that may affect the views of all involved stakeholders, focusing on the joint efforts that are required by the industry and the society as well as on the main technological, social, political and legal issues which are relevant to the process. It is believed that if trust is developed between the involved stakeholders the SLO may prove an important tool in future mining in order to safeguard the supply of raw materials, minimize the environmental footprint and improve the quality of life in the affected regions. Finally, a conceptual flowsheet involving the main steps that may be followed for granting a SLO is proposed.
引用
收藏
页数:15
相关论文
共 83 条
[11]   The mine of the future - Even more sustainable [J].
Batterham, R. J. .
MINERALS ENGINEERING, 2017, 107 :2-7
[12]   The impacts of intensive mining on terrestrial and aquatic ecosystems: A case of sediment pollution and calcium decline in cool temperate Tasmania, Australia [J].
Beck, K. K. ;
Mariani, M. ;
Fletcher, M-S ;
Schneider, L. ;
Aquino-Lopez, M. A. ;
Gadd, P. S. ;
Heijnis, H. ;
Saunders, K. M. ;
Zawadzki, A. .
ENVIRONMENTAL POLLUTION, 2020, 265
[13]   Cooling pathways for deep Australian longwall coal mines of the future [J].
Belle, B. ;
Biffi, M. .
INTERNATIONAL JOURNAL OF MINING SCIENCE AND TECHNOLOGY, 2018, 28 (06) :865-875
[14]   Map of critical raw material deposits in Europe [J].
Bertrand, Guillaume ;
Cassard, Daniel ;
Arvanitidis, Nikolaos ;
Stanley, Gerry .
EUROPEAN GEOSCIENCES UNION GENERAL ASSEMBLY 2016, 2016, 97 :44-50
[15]   Past, present and future environmental footprint of the Danish wind turbine fleet with LCA_WIND_DK, an online interactive platform [J].
Besseau, Romain ;
Sacchi, Romain ;
Blanc, Isabelle ;
Perez-Lopez, Paula .
RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2019, 108 :274-288
[16]   Putting social license to operate on the map: A social, actuarial and political risk and licensing model (SAP Model) [J].
Bice, Sara ;
Brueckner, Martin ;
Pforr, Christof .
RESOURCES POLICY, 2017, 53 :46-55
[17]   What Gives You a Social Licence? An Exploration of the Social Licence to Operate in the Australian Mining Industry [J].
Bice, Sara .
RESOURCES-BASEL, 2014, 3 (01) :62-80
[18]   Greening the blue? Corporate strategies for legitimising deep sea mining [J].
Childs, John .
POLITICAL GEOGRAPHY, 2019, 74
[19]   Environmental Impact Assessments for deep-sea mining: Can we improve their future effectiveness? [J].
Clark, Malcolm R. ;
Durden, Jennifer M. ;
Christiansen, Sabine .
MARINE POLICY, 2020, 114
[20]   Characterizing a mining space: Analysis from case studies in Chile and Australia [J].
Devenin, Veronica ;
Bianchi, Constanza .
RESOURCES POLICY, 2019, 63