Risk Assessment Methods in Mining Industry—A Systematic Review
Abstract
:Featured Application
Abstract
1. Introduction
- a summary of the research developed in the mining sector in the last decade in the area of risk assessment, risk management, risk analysis, and risk decision,
- conducting the qualification procedure in accordance with the adopted distribution criteria based on the concept of functioning of human engineering systems in the mining sector,
- identification of research gaps in the area of implementation of risk management concepts in the mining sector.
2. Review Methodology
2.1. Literature Search Strategy
2.2. Selection Process
3. Results
- Two publications in the area of risk decisions,
- Five publications in the area of risk analysis,
- Fifteen publications in the area of risk management,
- Seventy-two publications in the area of risk assessment.
4. Thematic Analysis of the Conducted Review
5. Identification of the Main Research and Knowledge Gaps
6. Conclusions
Author Contributions
Funding
Conflicts of Interest
Appendix A
Name | Scope | Group |
---|---|---|
PN-N-18001/OHSAS 18001 Occupational health and safety management systems-Specification | Defines the requirements for the occupational health and safety management system. These requirements enable the organization to control occupational risk and improve health and safety. | General |
PN-N-18002:2011 Occupational Health and Safety Management Systems. General guidelines for occupational risk assessment | Defines general guidelines occupational risk assessment at workplaces. | General |
ISO 31010:2009 Risk management-Risk assessment techniques | Defines guidance on selection and application of systematic techniques for risk assessment | General |
Directive 89/391/EEC measures to improve the safety and health of workers at work | Defines measures to improve the health and safety of people at work. It sets out obligations for both employers and employees to reduce accidents and occupational disease in the workplace. | Human |
Directive 2006/42/EC on machinery, and amending Directive 95/16/EC (recast) | Application to machinery, interchangeable equipment, safety components, lifting accessories, chains, ropes and webbing, removable mechanical transmission devices and partly completed machinery. | Machines |
ISO 12100:2010 Safety of machinery-General principles for design-Risk assessment and risk reduction | Defines basic terminology, principles, and a methodology for achieving safety in the design of machinery. | Machines |
ISO 13849-1:2015 Safety of machinery-Safety-related parts of control systems-Part 1: General principles for design | Defines safety requirements and guidance on the principles for the design and integration of safety-related parts of control systems (SRP/CS), including the design of software. | Machines |
ISO 13849-2:2012 Safety of machinery-Safety-related parts of control systems-Part 2: Validation | Defines the procedures and conditions to be followed for the validation by analysis and testing of the specified safety functions, the category achieved, and the performance level achieved by the safety-related parts of a control system (SRP/CS) designed in accordance with ISO 13849-1. | Machines |
ISO 14121-1:2007 Safety of machinery-Risk assessment-Part 1: Principles | Defines general principles intended to be used to meet the risk reduction objectives established in ISO 12100-1:2003, Clause 5. | Machines |
PN-EN 12111: 2014-07 Tunneling machinery-Road headers and continuous mining machines-Safety requirements | Identifies all significant hazards, hazardous situations and events related to road headers and continuous mining machines, used as intended, as well as in the conditions of incorrect use, foreseeable by the manufacturer. | Machines |
PN-EN 14973: 2016-01 Conveyor belts used in underground excavations-Electrical and fire safety requirements | Defines the electrical and fire safety requirements for conveyor belts intended for use in underground excavations, in a flammable or non-flammable atmosphere. | Machines |
PN-EN 60204-1: 2018-12 Safety of machinery-Electrical equipment of machines-Part 1: General requirements | Applies to electrical, electronic, and programmable electronic equipment and systems for machines not held in hands while working, including a group of machines working together in a coordinated manner. | Machines |
PN-EN 62061: 200 Safety of machinery-Functional safety of electrical, electronic, and electronic programmable safety control systems | Defines requirements and makes recommendations for the design, completion, and validation of electrical, electronic, and programmable electronic control systems (SRECS) for machines. | Machines |
Directive 94/9/EC - the approximation of the laws of the Member States concerning equipment and protective systems intended for use in potentially explosive atmospheres | Applies to equipment and protective systems intended for use in potentially explosive atmospheres. | Environment |
PN-EN 14591-1: 2006 Explosion protection in underground mine headings-Protective systems-Part 1: Explosion-proof ventilation dam with strength 2 bar | Defines safety requirements for ventilation structures such as dams and explosion barriers, resistant to explosions with a pressure of up to 2 bar. | Environment |
PN-EN 14983: 2009 Explosion prevention and explosion protection in underground mining plants-Equipment and protective systems intended for methane drainage | Defines requirements for devices intended for the drainage of underground mining plants. These devices include: fans, compressors and other types of equipment designed to maintain safety. | Environment |
PN-EN 60079-0: 2013-03 Explosive atmospheres-Part 0: Equipment-Basic requirements | Defines the basic requirements for the construction, testing and marking of electrical equipment and Ex components intended for use in explosive atmospheres | Environment |
PN-EN 1710 + A1: 2008 Equipment and components intended for use in potentially explosive atmospheres in underground mine headings | Defines the requirements for the design of equipment and components used as individual devices or machine parts in underground mine headings endangered by methane and/or coal dust explosion. | Environment |
PN-EN ISO 14001 Environmental management systems-Requirements and guidelines for use | Defines the requirements for an environmental management system that an organization can use to improve the environmental effects of its operations. | Environment |
Appendix B
No. | References | Journal | Publication Year | The Main Target of the Study | Keywords | Search Group | Thematic Group |
---|---|---|---|---|---|---|---|
1 | [40] | Environmental Geochemistry and Health | 2019 | Evaluation of the pollution status and ecological risk of agricultural soils using complex quality indices and new index for ecological risk | Surface soil, trace metal, ecological risk assessment, source identification, geographic information system | Environmental risk assessment | Environment |
2 | [54] | Environmental Earth Sciences | 2018 | Assessment of health risk of workers and residents in the vicinity of the active beneficiation of Eshidiya phosphate mine water following EPA risk assessment guidelines (heavy metal contamination levels of mine water) | Phosphate beneficiation, mine water, health risk assessment, heavy metals, carcinogenic and non-carcinogenic risk, Jordan | Environmental risk assessment | Environment |
3 | [55] | Human and Ecological Risk Assessment | 2017 | To examine association between perceived environmental exposures from mining activities and subjective health in Northern Ghana using the Upper West Region as a case study | Ghana, Upper West Region, self-rated health, impacted, affected | Environmental risk assessment | Environment |
4 | [56] | Environmental Monitoring and Assessment | 2016 | Human health risk assessments for heavy metals contamination around Obuasi gold mine in Ghana | Heavy metals, contamination, gold mining, health risk assessment, Obuasi, Ghana | Environmental risk assessment | Environment |
5 | [57] | Bulletin of Environmental Contamination and Toxicology | 2013 | Determining metal pollution (Cu, Zn, Pb, Cd, As, Hg, Ni and Al) and ecological risk in the sediments around Rize Harbor | Metal contamination SQGs, enrichment factor, factor analysis, toxic units | Environmental risk assessment | Environment |
6 | [58] | Human and Ecological Risk Assessment | 2018 | Assessment the potential health risk for children and adults connected with concentrations of REEs (Rare Earth Elements) in PM10 | rare earth elements, particulate matter, health risk assessment, Nandan County | Environmental risk assessment | Environment |
7 | [59] | Environmental Geochemistry and Health | 2016 | Highlighting the environmental pollution problems and public health concerns of coal mining, particularly the potential occupational health hazards of coal miners exposed in Heshan | Coal mining, polycyclic aromatic hydrocarbons (PAHs), principal component analysis (PCA), incremental lifetime risk (ICLR), Heshan, Guangxi Autonomous Region | Environmental risk assessment | Environment |
8 | [60] | Environmental Science and Pollution Research | 2018 | Investigation of the potential harmful element (PHE) concentrations in coal dust and evaluation of the human risk assessment and health effects near coal mining areas | Coal dust, chronic daily intake, chronic risk, cancer risk, coal mines | Environmental risk assessment | Environment |
9 | [61] | Environmental Geochemistry and Health | 2019 | A model specialized to the HRA of abandoned metal mine areas was developed via modification of the Korean guidelines in terms of exposure pathways in the scenario and equations and parameters for estimating human risk | human risk assessment, abandoned mine, heavy metal contamination, carcinogenic risk, non-carcinogenic risk, remediation level | Environmental risk assessment | Environment |
10 | [62] | Food Security | 2015 | Measurement of the concentrations of Pb, Cd, Cu, and Zn in paddy soils and rice grains collected from sites close to seven mines in Hunan province and estimation of the degree of paddy soil pollution and human health risks through white rice consumption of these elements around those areas | Heavy metal, potential health risk, mining-affected area, paddy soil, white rice, Hunan province | Environmental risk assessment | Environment |
11 | [63] | Journal of Geographical Sciences | 2015 | Development of quantitative estimation of the non-carcinogenic and carcinogenic risks of heavy metals in road dust to local residents of Bayan Obo Mining Region in Inner Mongolia, North China | road dust, heavy metal elements, contamination assessment, health risk assessment, Bayan Obo Mining Region | Environmental risk assessment | Environment |
12 | [64] | Environmental Geochemistry and Health | 2013 | Assessment of health risk of mercury pollution via oral exposure to inhabitants in southwestern China | Mercury, heavy metals exposure pathway, average daily intake dose, mining activity | Environmental risk assessment | Environment |
13 | [65] | Human and Ecological Risk Assessment | 2017 | Exploration of the distribution characteristics and source of Hg in indoor and outdoor dust of Huainan city; analysis of influencing factors for the Hg concentrations in different districts; Evaluation of the potential risks to adults and children | Mercury, contamination characterization, indoor and outdoor dust, health risk, Huainan | Environmental risk assessment | Environment |
14 | [66] | Bulletin of Environmental Contamination and Toxicology | 2019 | Analysis of the degree of pollution by heavy and radioactive metals of the oldest known extraction sites (e.g., Ciudanovita, Lisava, Anina, and Moldova Noua) | Heavy metals, tailings dumps, dose rate, SEM, FTIR, ICP–MS | Environmental risk assessment | Environment |
15 | [67] | Environmental Science and Pollution Research | 2016 | The potential chronic risks associated with the exposure to individual and multiple heavy metals by contaminated food consumption were evaluated by calculating the DIR | Heavy metals, contaminated food, heavy metal ingestion, health risk assessment | Environmental risk assessment | Environment |
16 | [68] | Environmental Geochemistry and Health | 2015 | A model of atmospheric particle dispersion from mine-waste dumps to delimit the risk zones of trace element contamination of soil and to determine its influence on the population | Environmental impact, mining activity, potentially toxic elements, soil pollution modeling | Environmental risk assessment | Environment |
17 | [69] | Environmental Monitoring and Assessment | 2019 | Assessment of ecological and health risk connected with heavy metals contamination (As, Cd, Cr, Cu, Pb, and Zn) of surface sediments | Gold mining, sediment, trace metals, assessment | Environmental risk assessment | Environment |
18 | [70] | Environmental Geochemistry and Health | 2018 | Determining the levels of target PAHs in sediment samples at Okobo-Enjema mine vicinity, and assessment of the potential health risk to benthic organisms and humans on exposure to the PAHs through the sediments | Analysis, concentrations PAHs, risk assessment, source apportionment, sediments | Environmental risk assessment | Environment |
19 | [71] | Archives of Environmental Contamination and Toxicology | 2015 | Sampling sites for household dust collection were selected according to building distribution location, building styles, and indoor activities in the Vicinity of Phosphorus Mining, Guizhou Province, China | Not specified | Environmental risk assessment | Environment |
20 | [72] | Environmental Geochemistry and Health | 2012 | Evaluating As bio accessibility in stratified samples from a gold mining area and assessing children exposure to As- contaminated materials | Trace elements, in vitro tests, human health, anthropogenic impacts, environmental contamination | Environmental risk assessment | Environment |
21 | [73] | Arabian Journal of Geosciences | 2018 | The determination of spatial variation of Zn, Cu, Cr, Pb, Hg, and As in the Junggar coal mine area and risk assessment of soil toxic metals | Coal mining, toxic metal pollution, pollution index (PI), risk assessment, spatial distribution | Environmental risk assessment | Environment |
22 | [74] | Environmental Geochemistry and Health | 2017 | Health risk assessment through consumption of vegetables from polluted areas | Mining activity, heavy metals/metalloids, vegetables exposure, hazard | Environmental risk assessment | Environment |
23 | [75] | Environmental Earth Sciences | 2018 | Ecological risk assessment for heavy metals contamination (Cu, Cd, Pb, Cr, and Zn) in topsoil of Yedidalga mine harbor in Northern Cyprus | Heavy metals, soil contamination, pollution assessment, ecological risk, Yedidalga mine harbor | Environmental risk assessment | Environment |
24 | [76] | Environmental Monitoring and Assessment | 2015 | The concentrations of 12 metals (As, Be, Bi, Cd, Co, Cr, Cu, Hg, Ni, Pb, Sb, and Zn) in soil, agricultural product, and hairy vetch samples were determined to identify relationships between the heavy metal concentrations in the soil and the sources of the heavy metal pollution | Heavy metal, multivariate analysis. Agricultural soil, agricultural products, mining and smelting areas, risk assessment, Enrichment factor, ecological risk | Environmental risk assessment | Environment |
25 | [77] | Environmental Monitoring and Assessment | 2018 | To examine the degree and extent of Pb, Zn, Cd, As, Cr, Cu, Hg, and Ni contamination in soils associated with Jinding mining activities, to assess the potential environmental risk; and to determine the major sources of heavy metal contamination in soils | Heavy metals, soil contamination, pollution indexes, environmental risk assessment, multivariate analysis, spatial distribution | Environmental risk assessment | Environment |
26 | [78] | Human and Ecological Risk Assessment | 2018 | Examination of the contents of Cd, Cu, Zn, and As in soil to analyze the efficiency of biochar treatments on bioavailability and speciation distribution of heavy metals in coal-contaminated soil | Heavy metals, biochar, contaminated soil, speciation, bioavailability | Environmental risk assessment | Environment |
27 | [80] | Environmental Geochemistry and Health | 2019 | Analysis of soil samples around pristine and major gold-mining areas in Ghana for heavy metals as part of a larger soil contamination and metal background study | Heavy metal, mining, Pristine soil, contamination indices, health risk assessment | Environmental risk assessment | Environment |
28 | [81] | Chemistry Central Journal | 2011 | Measurement of the levels of heavy metals (Fe, Mn, Zn, Cu, Ni, Cd and Pb) found in common vegetables grown in contaminated mining areas compared with those grown in reference clear area and to determine their potential detrimental effects | Not specified | Environmental risk assessment | Environment |
29 | [82] | Environmental Monitoring and Assessment | 2013 | Analysis of the total contents of selected metals (Ti, Mn, Cr, Pb, Zn, Ni, Cu, As, Hg and Cd) in mine soil around the Lake, and determining the distribution of the metals in the area surrounding the Miyun Reservoir and assessment of heavy metal eco-logical risk in soil using the Igeo index | Heavy metals, soils, sequential extraction, multivariate analysis, risk assessment | Environmental risk assessment | Environment |
30 | [83] | Human and Ecological Risk Assessment | 2019 | Application of engineering methods and crop rotation systems to remediate heavy metal contaminated agricultural soil around mining area through a 1-year field experiments | Heavy metal, in situ remediation, gold mining, contaminated agricultural soil | Environmental risk assessment | Environment |
31 | [84] | Human and Ecological Risk Assessment | 2017 | Determining the levels of As in 23 vegetable species planted on As-polluted soils and assessing the human health risks of vegetable consumption in the contaminated area | Arsenic, vegetable, soil contamination, mining area, health risk assessment | Environmental risk assessment | Environment |
32 | [85] | Environmental Monitoring and Assessment | 2015 | Assessment of potential ecological risk of heavy metals (As, Cd, Cr, Cu, Hg, Ni, Pb, and Zn) based on the examined data from Hunan Province | Soil heavy metals, potential ecological risk, zinc-lead mining area | Environmental risk assessment | Environment |
33 | [87] | Biological Trace Element Research | 2019 | Assessment of dietary exposure to potentially toxic trace elements, particularly Cu, Mo, Hg, Cd, As, and Pb through the intake of selected vegetables grown under the impact of Kajaran’ s mining complex | Mining, transfer factor, trace element, risk | Environmental risk assessment | Environment |
34 | [88] | Journal of Environmental Management | 2016 | Assessment of long-term effects of anthropogenic pressure of the sulfur industry on turf-covered soils located in the vicinity of the sulfur mine Grzybow, Poland | Sulfur mine, contamination, heavy metal, soil, Poland | Environmental risk assessment | Environment |
35 | [89] | Environmental Forensics | 2017 | Trace element analysis and risk assessment in mining area soils from Zhexi river plain, Zhejiang, China | Trace elements, source identification, risk assessment, multiway principal component analysis, river source | Environmental risk assessment, risk analysis | Environment |
36 | [90] | Human and Ecological Risk Assessment | 2016 | Assessment of the potential ecological risk (PER) and human health risk of heavy metals (As, Hg, Pb, Cd, Cr and Cu) pollution in urban soils of a coal mining city in East China (Tianjia’ an and Datong district) | Heavy metal, mining city, urban soil, spatial distribution, potential ecological risk, human health risk | Environmental risk assessment | Environment |
37 | [92] | Environmental Monitoring and Assessment | 2012 | Risk assessment due to intake of heavy metals (pollution of water resources) for East Singhbhum region, India | Groundwater, hazard quotient, heavy metals, risk assessment, uranium mining, iron, manganese | Environmental risk assessment | Environment |
38 | [93] | Environmental Monitoring and Assessment | 2018 | Investigation of water body contamination by heavy metals in the vicinity of gold mines and providing of ecological and human health risk assessment estimation | Metal contamination, toxicity, health risk, physicochemical, surface water, mining | Environmental risk assessment | Environment |
39 | [94] | Journal of Soils and Sediments | 2018 | Evaluation of the possible risks posed by heavy metals in sediments and pore water | Distribution, heavy metals, particle size, speciation, Yongding River | Environmental risk assessment | Environment |
40 | [95] | Environmental Science and Pollution Research | 2018 | The distribution and accumulation of 16 elements (including heavy metals, macro-elements, and other trace elements) in four fish species from Xiang River were investigated through statistical analysis; human dietary exposure to trace elements through fish consumption was evaluated | Bioaccumulation, heavy metal, correlation analysis, Principle component analysis, target hazard quotient | Environmental risk assessment | Environment |
41 | [96] | Human and Ecological Risk Assessment | 2016 | Evaluation of the degree of residents’ exposure to seven heavy metals and assessment of the pollution in water and sediment samples at four different locations of the Yellow River, China | Exposure level, hair, heavy metals, risk assessment, Yellow River | Environmental risk assessment | Environment |
42 | [97] | Frontiers of Environmental Science and Engineering | 2015 | Distribution characteristics of heavy metal in the groundwater of Chenzhou City, China region (Shizhuyuan Polymetallic Mine) and evaluation of the potential risks to human health as a drinking water source | Groundwater, heavy metal, health risk assessment, mine area | Environmental risk assessment | Environment |
43 | [100] | Human and Ecological Risk Assessment | 2016 | Assessment of environmental risk of GolGohar Iron Ore Complex Sirjan | environmental risk assessment, GolGohar Sirjan Ore Complex, wildlife habitat, FMEA | Environmental risk assessment | Environment |
44 | [102] | Environmental Technology and Innovation | 2015 | Methodology to conduct risk assessment under uncertainty during a pre-mining phase, where hydrogeological information that characterizes a mine site is limited | Risk analysis, fugacity model, acid rock drainage, uncertainty, probability bounds analysis | Environmental risk assessment | Environment |
45 | [103] | Environmental Earth Sciences | 2012 | Environmental risk assessment for acid mine drainage (Zn, Cu, Ni, As, Co, Sb, SO42-, pH, alkalinity) | Acid neutralizing capacity, sulphide metal leaching, Tarkwa Prestea, mine spoil | Environmental risk assessment | Environment |
46 | [105] | Human and Ecological Risk Assessment | 2017 | Ecological risk assessment of heavy metals Zhexi river plain, Zhejiang, China using the modified potential ecological risk index (MRI) | mine dumping site, acidification, heavy metals, water soluble, ecological risk | Environmental risk assessment | Environment |
47 | [107] | Environmental Monitoring and Assessment | 2019 | Assessment and verification of bio accessibility of Pb and Zn using three different methodologies of sequential extraction and a bio accessibility method; Contamination assessment | Potentially toxic metals, sequential extraction, bio accessibility, potential ecological risk, risk assessment code | Environmental risk assessment | Environment |
48 | [108] | Environmental Science and Pollution Research | 2013 | A method for quantifying the impact of mining activities, taking account of the quality of environmental media in the Rosia Montana area | Environmental pollution, impact assessment, risk assessment, mining, Rosia Montana | Environmental risk assessment | Environment |
49 | [116] | International Journal of Mining, Reclamation and Environment | 2011 | A due diligence approach to capture and rank the core social issues that impact both the risk of mine feasibility studies in Canada and stakeholder interests regarding mineral resource development within a community’s economic sphere of influence | social risk, due diligence, mining communities, impact-benefits agreements, community relations | Environmental risk assessment | Human |
50 | [38] | Mining Technology | 2017 | Method developed to investigate the robustness of stochastic simulations in risk quantification and stochastic optimization studies for a given mineral deposit under operation | Geostatistical simulation, mine reconciliation, stochastic optimization, risk analysis, mining scheduling | Risk analysis | General |
51 | [86] | Bulletin of Environmental Contamination and Toxicology | 2015 | Evaluation of ecological impacts of metals in soil from the restored Panyi coal mining area in China | Avian, ecological impacts, intervention, mammalian, soil contamination, plants | Risk analysis | Environment |
52 | [119] | Stochastic Environmental Research and Risk Assessment | 2018 | Approach that integrates multi-goal FCM and sensitivity analysis in multi-criteria decision-making process to prioritize and assess the risk associated with working accidents in underground collieries | Workplace accident risk, multi-goal FCM, TOPSIS, sensitivity analysis, underground collieries | Risk analysis | General/Human |
53 | [121] | Berg Huettenmaenn Monatsh | 2019 | Comparison of advantages and disadvantages of haulage methods to guarantee optimum choice in terms of evaluation and risk analysis of open-pit mining operations | Bucket wheel excavator, cutting resistance, risk analysis | Risk analysis | Machines |
54 | [36] | Iranian Journal of Science and Technology-Transactions of Civil Engineering | 2018 | Risk analysis and risk management of wastewater transmission and treatment including risk categorization, risk reduction and confrontation strategies | Risk assessment, wastewater systems, vulnerability, FAHP, FSAW | Risk assessment | General |
55 | [41] | International Journal of Mining, Reclamation and Environment | 2010 | An application of a risk assessment approach in characterizing the risks associated with safety violations in underground bituminous mines in Pennsylvania using the Mine Safety and Health Administration (MSHA) citation database | Safety, standard citations, risk assessment, coal mines, Pennsylvania | Risk assessment | General |
56 | [42] | International Journal of Mining, Reclamation and Environment | 2017 | A practical method for assessing the risk of roof falls in coal mines | Underground coal mine, longwall, stability of the roof, roof fall, risk assessment. | Risk assessment | General |
57 | [44] | Journal of Safety Research | 2019 | Pythagorean fuzzy numbers-based (PFVIKOR) approach for improving overall safety levels of underground mining by considering and advising on the potential hazards of risk management | Occupational hazards, risk assessment, underground copper and zinc mine, Pythagorean fuzzy set, VIKOR | Risk assessment | General |
58 | [46] | Stochastic Environmental Research and Risk Assessment | 2018 | A hybrid information fusion approach that integrates the cloud model and the D–S evidence theory to perceiving safety risks using sensor data under uncertainty | Safety analysis, cloud model, D–S evidence theory, information fusion, tailings dam, sensor data | Risk assessment | General |
59 | [47] | Arabian Journal of Geosciences | 2018 | A decision model is established to evaluate safety of coal mining above confined aquifer | Multi-criteria decision-making, weighted linear combination, geographic information system, maximizing deviation | Risk assessment | General |
60 | [49] | Stochastic Environmental Research and Risk Assessment | 2018 | Concepts and methods for evaluating sequential information gathering schemes in spatial decision situations | Value of information, spatial risk analysis, spatial statistic, sequential information, adaptive testing, Bayesian networks, Gaussian processes | Risk assessment | General |
61 | [50] | International Journal of Coal Science and Technology | 2016 | A framework to quantify the risk of kriging-based mining projects due to the geological uncertainties | Open pit mine planning, Geological uncertainty, multivariate conditional simulation, grade/tonnage curves | Risk assessment | General |
62 | [51] | Journal of Mining Science | 2015 | Geotechnical risk assessment process to suit the underground mining needs | Underground mine, geotechnical accident, risk prevention, risk assessment scope, risk assessment tools | Risk assessment | Environment |
63 | [52] | International Journal of Rock Mechanics and Mining Sciences | 2010 | An approach to building damage risk assessment on mining induced areas | Risk assessment, GIS, mining subsidence, building damage | Risk assessment | General/environment |
64 | [53] | Human and Ecological Risk Assessment | 2019 | The integrated system comprising deep mining, coal-gangue dressing, and underground backfilling is proposed, followed by analysis of the type, construction, and protection standards of the buildings. Case study for Tangshan coal mine of the Kailuan Group, China | Risk assessment, surface subsidence, backfill mining, dense buildings, environmental protection | Risk assessment | Environment |
65 | [101] | Arabian Journal of Geosciences | 2016 | Exploring the impacts of dilution on open pit mines and examines the major risks associated with dilution | Dilution, open pit mines, risk analysis, management tool | Risk assessment | General |
66 | [104] | Human and Ecological Risk Assessment | 2012 | A quantitative ERA (QERA) was undertaken of the Magela Creek floodplain, downstream of the Ranger mine, which encompassed point source mining-related risks and diffuse landscape-scale risks | Ecological risk assessment, Ranger uranium mine, landscape-scale risks | Risk assessment | Environment |
67 | [106] | Human and Ecological Risk Assessment | 2018 | Overview of environmental impact of underground coal mine technological units | Coal mine, environmental impact assessment, influential parameters; measurement of parameters, risk assessment | Risk assessment | Environment |
68 | [109] | Acta Geophysica | 2017 | A GIS approach to the standard deterministic seismic risk assessment by focusing on the potential losses to population and infrastructure | Acid mine drainage, Johannesburg, seismic risk, vulnerability, GIS | Risk assessment | Environment |
69 | [111] | Arabian Journal of Geosciences | 2018 | A GIS- and AHP-based method of risk assessment of coal-floor water inrush on the no. 11 coal seam | Coal floor, water inrush, analytic hierarchy process (AHP), GIS, vulnerability index method (VIM) | Risk assessment | General |
70 | [112] | Arabian Journal of Geosciences | 2019 | A method for evaluating high confined water hazard in coal seam floor | Improved analytic hierarchy process vulnerability index (IAHP-VI) method, vulnerability index model, GIS, geological structure | Risk assessment | General |
71 | [113] | Journal of Coal Science and Engineering | 2010 | Risk assessment of Xinhe’s water inrush evaluation based on quantification theoretical models | Water inrush, assessment, prediction, quantification theoretical, model | Risk assessment | General |
72 | [114] | Water Resources and Industry | 2019 | Testing the ability of three assessment methods to adequately reflect water-related risks of a mining operation based on a case study approach for six copper mines | Copper mining, water risk, risk assessment, environmental performance, accountability, sustainability | Risk assessment | General/environment |
73 | [117] | Extractive Industries and Society | 2017 | Presentation of the results of the Infectious Disease Risk Assessment and Management (IDRAM) initiative pilot | Extractive industry, emerging infectious diseases, EIDs, infection and prevention control, IPC | Risk assessment | Human |
74 | [118] | International Journal of Mining, Reclamation and Environment | 2017 | Method for radiation risk assessment focused on the need of individual dosimetry of all population of the region, country on the basis of, for example, solid-state individual dosimetry (TLDs) | Radiation, dumps, tailing dams, uranium mines, radiation risk | Risk assessment | Human |
75 | [122] | International Journal of Occupational Safety and Ergonomics | 2020 | Method for evaluation of the risks which may be available in mechanized coal mines in Turkey, which based on expert knowledge and engineering judgement in linguistic forms implementation | Fuzzy logic approach, fuzzy inference system, Mamdani algorithm, risk matrix, coal mining | Risk assessment | General/machines |
76 | [123] | International Journal of Injury Control and Safety Promotion | 2015 | A method based on the concepts of task and accident mechanisms for an initial risk assessment by taking into consideration the prevalence and severity of the maintenance accidents reported | Risk assessment, accident mechanisms, occupational safety, maintenance, accident analysis | Risk assessment | General |
77 | [125] | Transactions of the Institutions of Mining and Metallurgy, Section A: Mining Technology | 2015 | Risk assessment of an exploration drill rig focusing on hazards connected to maintenance and operability of the equipment and identification of safety improvements | Equipment design, drill rig, safety in design | Risk assessment | General |
78 | [45] | International Journal of Injury Control and Safety Promotion | 2017 | Risk-based decision-making methodology proposed for selecting an appropriate safety measure system in relation to an underground coal mining industry with respect to multiple risk criteria | Underground coal mining industry, risk-based decision making, interval-valued fuzzy set theory, fuzzy risk analysis | Risk decision | General |
79 | [79] | Journal of Agricultural and Environmental Ethics | 2019 | Determination of the concentrations of heavy metals in the soil around “Larga de Sus” abandoned mine (Zlatna town, Romania) and assessment of the potential ecological risk of heavy metals in soil as a tool to help in the decision-making process | Environmental ethics, ecological risk assessment, heavy metals, soil pollution, sustainability | Risk decision | Environment |
80 | [2] | Resources Policy | 2014 | Review of international case studies concerning the functioning and liquidation of the mining enterprises along with an extended analysis of the effects of collieries’ liquidation in Poland in the hard coal mining restructuring process | Risk management in hard coal mining industry, collieries’ liquidation, corporate social responsibility in hard coal mining | Risk management | General |
81 | [34] | Journal of Loss Prevention in the Process Industries | 2013 | New practical approach to risk management in underground goldmines in Quebec | Mining projects, underground goldmines, risk management, occupational health and safety (OHS), multi-criteria analysis (AHP) | Risk management | General |
82 | [35] | Procedia Engineering | 2015 | Contribution to create a framework for implementing or improving risk management practices in procurement activities in mining companies by proposing a knowledge-based supporting system | Computer prototype, knowledge-based system, maturity models, procurement and contracting, risk management | Risk management | General |
83 | [37] | International Journal of Mining Science and Technology | 2017 | Multivariable function analysis methodology approach based on complex system modelling and through real data corresponding to a risk management tool in the mining sector | Risk, risk management, complex systems, mining, decision making | Risk management | General |
84 | [39] | Georisk | 2014 | Introduction of the copulas to mining engineering practitioners | Monte Carlo simulations, mining engineering, value-at-risk, copulas, Spearman’s rank, Kendall’ s tau | Risk management, assessment | General |
85 | [43] | Ergonomics | 2017 | Aimed at examining safety leadership through a systems-thinking lens by testing the applicability of a popular systems analysis framework in the safety leadership context | Safety leadership, systems-thinking, safe performance, learning from incidents | Risk management | General |
86 | [48] | International Journal of Management Science and Engineering Management | 2019 | Method focused at identifying volatile risk events by integrating the AHP, expert questionnaire survey and sensitivity analysis | Analytic hierarchy process, expert questionnaire survey, sensitivity analysis, risk, mining | Risk management, assessment | General |
87 | [91] | Sustainable Water Resources Management | 2019 | Studying priority heavy metals (Ag, Al, As, Cd, Cu, Fe, Mo, Ni, Pb, Sn, Sb, Se, Zn, Hg, Te) in the water of minor rivers in the Voghchi and Meghri basins, surface sources of centralized drinking water supply and drinking water supplied to urban and rural population of the mining region in South Armenia | Drinking water, heavy metals, mine pollution, health risk assessment | Risk management | Environment |
88 | [98] | Journal of Cleaner Production | 2016 | Providing mine operators with an organized informational framework that could be applied during future underground coal mine closures independent of the environmental problems faced and connected to the types and characteristics of coal and the exploitation methods used | Sustainability, mine closure, underground coal mining, environmental risks, risk management, management tool | Risk management | General/environment |
89 | [99] | Environmental Science and Pollution Research | 2013 | The need for re-assessing the potential of mining in the context of sustainable management of natural capital is discussed and a renewed focus on the role of mining from a systems perspective is proposed | Mining, risk assessment, environmental impacts, sustainable resources management | Risk management, assessment | Environment |
90 | [110] | Rock Mechanics and Rock Engineering | 2010 | Describing of a seismic risk management philosophy for underground, hard rock mines, based on the application of simple and practical micro seismic data interpretation and analysis techniques | Mining, rock mechanics, rocks engineering, stress, rock burst, mining inducted seismicity, seismic risk, seismic hazard, mine seismology, failure mechanism | Risk management | General |
91 | [115] | Journal of Environmental Management | 2016 | Model to identify critical surface water risk zones for an open cast mining environment, taking Jharia Coalfield, India as the study area | Coal mining, GIS, pollution reduction, remote sensing, risk potential index, surface water pollution | Risk management | Environment |
92 | [120] | Journal of Loss Prevention in the Process Industries | 2019 | Discussion from a near-miss safety management system perspective in terms of methods to foster both risk avoidance and locus of control in an effort to reduce the probability of near misses and lost time at the organizational level within the process industry and other high-hazard industries | Health and safety management system, locus of control, lost time incident, mining, near miss incident, Poisson regression, risk avoidance | Risk management | General/human |
93 | [124] | Production Planning and Control | 2018 | Theoretical framework, which describes the most recognized tools to be used in each of the proposed phases of failure mode analysis | Failure mode, maintenance, problem analysis, reliability, risk, TRIZ | Risk management | General/Machines |
94 | [126] | Safety Science | 2015 | This article examines the process of industry-wide OHS/safety information management in the Australian coal industry | Knowledge sharing, coal industry, knowledge management, knowledge/DIKW hierarchy, Bow-tie analysis, interactive database | Risk management | General |
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Year | Title | Goal | Main Topics |
---|---|---|---|
2016 | Mining Risk Review 2016. Dealing with uncertainty [5] | Highlighting key developments within the industry and focusing on risk management issues | Private equity capital; social license to Operate; advances in 3D printing; maintaining tailings dam; geotechnical, people and environmental risk |
2017 | Mining Risk Review 2017. The future of mining is now [6] | Determination of four key challenges that mining industry must address in new, innovative ways and focusing on risk mitigation and transfer issues | Geopolitics; stakeholder relations; digitization; people |
2018 | Mining Risk Review 2018. Six key messages for the mining industry today [7] | Determining six key messages that are critical in ensuring that the industry remains on track | Mining risk is no longer an option; greater attention for managing project delivery; avoiding a regulatory headache; geopolitical tensions as a significant threat to the industry; Global insurance market capacity as a threat for thermal coal risks; possible change in insurance market dynamics |
2019 | Mining Risk Review 2019. Addressing uncertainty [8] | Addressing the uncertainties of mining risk and mining risk transfer | Digitization; bottlenecks; geopolitical risk; social economic development |
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Tubis, A.; Werbińska-Wojciechowska, S.; Wroblewski, A. Risk Assessment Methods in Mining Industry—A Systematic Review. Appl. Sci. 2020, 10, 5172. https://doi.org/10.3390/app10155172
Tubis A, Werbińska-Wojciechowska S, Wroblewski A. Risk Assessment Methods in Mining Industry—A Systematic Review. Applied Sciences. 2020; 10(15):5172. https://doi.org/10.3390/app10155172
Chicago/Turabian StyleTubis, Agnieszka, Sylwia Werbińska-Wojciechowska, and Adam Wroblewski. 2020. "Risk Assessment Methods in Mining Industry—A Systematic Review" Applied Sciences 10, no. 15: 5172. https://doi.org/10.3390/app10155172
APA StyleTubis, A., Werbińska-Wojciechowska, S., & Wroblewski, A. (2020). Risk Assessment Methods in Mining Industry—A Systematic Review. Applied Sciences, 10(15), 5172. https://doi.org/10.3390/app10155172