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===5.0 Prediction=== | ===5.0 Prediction=== | ||
+ | ====List of Tables==== | ||
+ | :[[Table 5-1|Table 5-1: Methods for Geochemical Characterization]] | ||
+ | :[[Chapter_5b#Table 5-2|Table 5-2: Geologists Observations and Logging of Core for ARD Analysis]] | ||
+ | :[[Chapter_5b#Table 5-3|Table 5-3: Example Chemistry Table]] | ||
+ | :[[Chapter_5b#Table 5-4|Table 5-4: Example ABA]] | ||
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+ | [[#top|Top of this page]] | ||
+ | |||
+ | ====List of Figures==== | ||
+ | :[[Chapter_5#Figure 5-1|Figure 5-1: Generic Prediction Program Flowchart]] | ||
+ | :[[Chapter_5#Figure 5-2|Figure 5-2: Generalized Flowchart for the ARD Prediction Approach at Mine Sites (Maest and Kuipers, 2005)]] | ||
+ | :[[Chapter_5#Figure 5-3|Figure 5-3: Conceptual Model Showing Metal and Acid Source Regions at Iron Mountain and Downstream Transport Pathways to the Sacramento River]] | ||
+ | :[[Chapter_5#Figure 5-4|Figure 5-4: Flowchart for Metal and Acid Source Regions at Iron Mountain and Downstream Transport Pathways to the Sacramento River]] | ||
+ | :[[Chapter_5b#Figure 5-5|Figure 5-5: Schematic Illustration of Geochemical Characterization Program (modified from Maest and Kuipers, 2005)]] | ||
+ | :[[Chapter_5b#Figure 5-6|Figure 5-6: Example Plot of NP from Total Carbon vs. NP from Modified Sobek]] | ||
+ | :[[Chapter_5b#Figure 5-7|Figure 5-7: Example Plot of Total Sulphur vs. Sulphide Sulphur]] | ||
+ | :[[Chapter_5b#Figure 5-8|Figure 5-8: Example Plot of ABA vs. NAG Results]] | ||
+ | :[[Chapter_5b#Figure 5-9|Figure 5-9: Example Plot of Metal Loadings vs. Sulphate Content]] | ||
+ | :[[Chapter_5b#Figure 5-10|Figure 5-10: Humidity Cells]] | ||
+ | :[[Chapter_5b#Figure 5-11|Figure 5-11: Example Plot of HCT Results]] | ||
+ | :[[Chapter_5b#Figure 5-12|Figure 5-12: Wall Washing]] | ||
+ | :[[Chapter_5b#Figure 5-13|Figure 5-13: Test Cells for Waste Rock]] | ||
+ | :[[Chapter_5b#Figure 5-14|Figure 5-14: Test Plot for Paste Tailings – Somincor Neves Corvo Mine, Portugal]] | ||
+ | :[[Chapter_5b#Figure 5-15|Figure 5-15: Example of Block Model Use: ARD Potential of Pit Highwall Above Final Pit lake]] | ||
+ | :[[Chapter_5b#Figure 5-16|Figure 5-16: Example of Block Model Use: ARD Potential of Pit Wall after Cessation of Mining]] | ||
+ | :[[Chapter_5b#Figure 5-17|Figure 5-17: Decision Tree for the Determination of Acid Generation Potential (AMIRA, 2002)]] | ||
+ | :[[Chapter_5b#Figure 5-18|Figure 5-18: Example Plot of ABA Results and ARD Criteria]] | ||
+ | :[[Chapter_5c#Figure 5-19|Figure 5-19: Generalised Model Process]] | ||
+ | |||
+ | [[#top|Top of this page]] |
Revision as of 03:21, 7 February 2009
Contents
[hide]1.0 The Global Acid Rock Drainage Guide
List of Figures
- Figure 1-1: Types of Drainage Produced by Sulphide Mineral Oxidation
- Figure 1-2: Overall ARD Management Plan
- Figure 1-3: Applying an Environmental Management System to ARD
2.0 The Acid Rock Drainage Process
List of Tables
- Table 2-1: Common Sulphides Known or Inferred to GenerateAcid when Oxidized (Plumlee, 1999)
- Table 2-2: Typical NP Values and pH Buffering Ranges for Some Common Minerals (Jambor, 2003; Blowes et al., 2003; BCAMDTF, 1989)
List of Figures
- Figure 2-1: Roman Portal with Acid Rock Drainage – Spain
- Figure 2-2: Generalized Conceptual Model of Sources, Pathways and Receiving Environment at a Mine or Processing Site
- Figure 2-3: Ficklin Diagram Showing ARD, NMD, and SD as a Function of Dissolved Base Metal Concentrations (Plumlee et al., 1999)
- Figure 2-4: Diagram Showing ARD, NMD, and SD as a Function of Sulphate Concentrations
- Figure 2-5: Ficklin Diagram Showing Selected Principles that Govern Mine Water Quality (Plumlee et al., 1999)
- Figure 2-6: The Global Sulphur Cycle (Stumm and Morgan, 1996). Global Fluxes in Millions Tons of Sulphur per Year and Inventories in Millions Tons of Sulphur
- Figure 2-7: The Biogeochemical Sulphur Cycle
- Figure 2-8: Model for the Oxidation of Pyrite (Stumm and Morgan, 1981). (The numbers in brackets refer to the reactions presented in Section 2.6.4)
- Figure 2-9: Schematic Illustration of Normalized Sulphide Oxidation Rates with and without Bacterial Mediation (Robertson and Broughton, 1992)
- Figure 2-10: Stages in the Formation of ARD (Broughton and Robertson, 1992). (The numbers in brackets refer to the reactions presented in Chapter 2.6.4.)
- Figure 2-11: Schematic Illustration of Factors that Affect Sulphide Oxidation and Modify Mine Drainage during Transport
- Figure 2-12: Schematic Illustration of the Effect of Temperature on Normalized Sulphide Oxidation Rates (Robertson and Broughton, 1992)
- Figure 2-13: Two-Stage Process for Pyrite Oxidation in a Tailings Impoundment (Wunderly et al., 1996)
3.0 Corporate, Regulatory, and Community Framework
List of Tables
- Table 3-1 : Risk Management Procedure for Mine Sites (modified from Lee, 1999)
- Table 3-2: Integrating Risk Approach into ARD/ML Management
List of Figures
- Figure 3-1: Framework for ARD management
- Figure 3-2: Hierarchical relationship between Global, National and Local Elements of the Framework
- Figure 3-3: Conceptual ARD Management Framework
- Figure 3-4: Sustainable Development Balance
4.0 Defining the Problem – Characterization
List of Tables
- Table 4-1: Mine Phase Objectives and Activities
- Table 4-2: Characterization Activities by Mine Phase
- Table 4-3: Source Material Characterization Activities by Mine Phase
- Table 4-4: Geologic Characteristics of Mineral Deposits that Affect Their Environmental Signatures (Plumlee, 1999)
- Table 4-5: Australian Guidance on Sample Numbers (Australian Government Department of Industry, Tourism and Resources, 2007)
List of Figures
- Figure 4-1: Components of Site Characterization Program
- Figure 4-2: Characterization Chapter Road Map
- Figure 4-3: Typical Data Requirements of a Conceptual Site Model (CSM)
- Figure 4-4: Example Conceptual Site Model Schematic
- Figure 4-5: Major Steps Involved in Extraction Metallurgy of Metals
- Figure 4-6: Sources and Pathways of ARD, NMD, and SD in a Pit during Operation and Closure
- Figure 4-7: Sources and Pathways of ARD, NMD, and SD in Underground Workings during Operation and Closure
- Figure 4-8: Sources and Pathways of ARD, NMD, and SD in a Waste Rock Pile
- Figure 4-9: Sources and Pathways of ARD, NMD, and SD in a Subaqueous Tailings Storage Facility
- Figure 4-10: Source Material Geochemical Testing Program Components
- Figure 4-11: Water Balance Box and Arrow Diagram
5.0 Prediction
List of Tables
- Table 5-1: Methods for Geochemical Characterization
- Table 5-2: Geologists Observations and Logging of Core for ARD Analysis
- Table 5-3: Example Chemistry Table
- Table 5-4: Example ABA
List of Figures
- Figure 5-1: Generic Prediction Program Flowchart
- Figure 5-2: Generalized Flowchart for the ARD Prediction Approach at Mine Sites (Maest and Kuipers, 2005)
- Figure 5-3: Conceptual Model Showing Metal and Acid Source Regions at Iron Mountain and Downstream Transport Pathways to the Sacramento River
- Figure 5-4: Flowchart for Metal and Acid Source Regions at Iron Mountain and Downstream Transport Pathways to the Sacramento River
- Figure 5-5: Schematic Illustration of Geochemical Characterization Program (modified from Maest and Kuipers, 2005)
- Figure 5-6: Example Plot of NP from Total Carbon vs. NP from Modified Sobek
- Figure 5-7: Example Plot of Total Sulphur vs. Sulphide Sulphur
- Figure 5-8: Example Plot of ABA vs. NAG Results
- Figure 5-9: Example Plot of Metal Loadings vs. Sulphate Content
- Figure 5-10: Humidity Cells
- Figure 5-11: Example Plot of HCT Results
- Figure 5-12: Wall Washing
- Figure 5-13: Test Cells for Waste Rock
- Figure 5-14: Test Plot for Paste Tailings – Somincor Neves Corvo Mine, Portugal
- Figure 5-15: Example of Block Model Use: ARD Potential of Pit Highwall Above Final Pit lake
- Figure 5-16: Example of Block Model Use: ARD Potential of Pit Wall after Cessation of Mining
- Figure 5-17: Decision Tree for the Determination of Acid Generation Potential (AMIRA, 2002)
- Figure 5-18: Example Plot of ABA Results and ARD Criteria
- Figure 5-19: Generalised Model Process