Notes
Outline
"Sustainable Resource Processing"
Sustainable Resource Processing
A strategic analysis of the implications of sustainable development for minerals processing technology and how that can be effectively translated into tangible innovations, coherent R&D responses and business improvement opportunities, all reinforced by positive corporate values
Sponsorship and Participation
Participation
Table of Contents
"Sustainable Resource Processing"
Sustainable Resource Processing
Executive Summary
Executive Summary - The Initial Project Statement
Executive Summary - The Essence of the Analysis
Executive Summary - Rising to the Challenge
Executive Summary - Going Forward
"Sustainable Resource Processing"
Sustainable Resource Processing
Strategic Analysis & Framework
The Underlying Approach
Defining Sustainable Development
The Challenge of Sustainable Development
A Sense of Perspective and a Sense of Urgency
The Overall Material Flow
Eco-efficiency and Innovation
Factor X and ‘De-materialisation’ in Perspective
The Challenges of Resource Processing
Resource Stewardship
Sustainability as a Lever for Innovation
The Foundations of Sustainable Resource Processing
Slide 22
Going Forward
"Sustainable Resource Processing"
Sustainable Resource Processing
Overview Analysis of Current Material Flows
A Perspective on Materials Flows in Minerals Processing
Top ten transformed minerals - in order of price
Top ten transformed minerals,      Price per tonne of contained
 in order of price            final product / US$
PGMs - platinum and palladium2 20.5  Million
Gold metal      9  Million
Silver metal 0.15  Million
Ttitanium metal (sponge) 7000
Nickel metal 6500
Tin metal 5000
Chromium metal 4200
Titanium in titanium dioxide pigment 3750
Manganese in electrolytic manganese dioxide 2000
Magnesium metal 1850
1: Weighted average price
Note: Price and monetary value are prima facie indicative of the resources (natural, human and financial) that Society is prepared to exchange for products, however these measures exclude resource factors on which Society has not yet placed a price (notably environmental degradation)
Top ten transformed minerals - in order of value
Top ten transformed minerals,     Value of virgin material    Cumulative percentage
in order of value        content1 / Billion US$       of total production value
Iron metal (steel) 110 32%
Cement (Portland) 102 62%
Aluminium metal 38 73%
Copper metal 22 80%
Gold - total virgin metal2 22 86%
Titanium in titanium dioxide pigment 10 89%
Zinc metal 8.4 92%
Nickel - total metallic content of products 7.6 94%
PGMs - total platinum and palladium 7.2 96%
Nickel metal (included in total nickel) 4.7
Manganese - total metallic content3 4.6 97%
1: Value indicates the resources devoted to the extraction of the virgin material in the quantities used by Society.
2: Gold includes virgin gold as byproduct of other metal production
3: Most (> about 75%) of manganese values are included with steel as alloying elements.
Top transformed minerals - in order of mass produced
Top transformed minerals, Annual production (mass of Cumulative percentage of
 in order of mass produced contained virgin material)           total production
Cement (Portland)   1700 Mt 73.5%
Iron metal (steel)     550 Mt 97.2%
Aluminium metal       25 Mt 98.3%
Copper metal       13 Mt 98.9%
Zinc metal      8.4 Mt 99.3%
Manganese - total metallic content1         6.8 Mt 99.5%
Lead metal      3.0 Mt 99.7%
Chromium - total metallic content1         2.9 Mt 99.8%
Titanium in titanium dioxide pigment      2.6 Mt 99.9%
Nickel - total metallic content      1.2 Mt
Nickel metal (included in total nickel)      0.7 Mt
1: Majority of manganese and chromium values are included with steel as alloying elements
Where does Australia fit in the global picture?
Minerals transformed in Australian fraction of total
   Australia in order of global value of specified
   share of global value         virgin material1
Lead metal 13%
Gold - total virgin metal 12%
Nickel metal (included in total nickel)2 11%
Aluminium metal 7.2%
Nickel - total metallic content 6.7%
Titanium in titanium dioxide pigment 4.4%
Zinc metal 3.8%
Copper metal 2.1%
Silver - total virgin metal 1.3%
Iron metal (steel) 0.8%
Cement (Portland) 0.4%
1: Value refers only to extraction undertaken in Australia ( i.e. excludes Australian ores processed elsewhere).
2: Nickel metal includes relatively small proportion of nickel oxide, not separately distinguished.
What is the value of minerals transformation to Australia?
Minerals transformed Value of Australian transformed       Cumulative percentage
in Australia, in order of value    virgin production (to           of Australian value
specified form)1 / Billion US$
Aluminium metal 2.7 31%
Gold - total virgin metal 2.7 63%
Iron metal (steel) 0.88 73%
Nickel - total metallic content 0.51 79%
Nickel metal (included in total nickel)2 0.51
Copper metal 0.46 84%
Titanium in titanium dioxide pigment 0.43 89%
Cement (Portland) 0.41 94%
Zinc metal 0.32 97%
Lead metal 0.19
Silver - total virgin metal 0.03
1: Value refers only to extraction undertaken in Australia ( i.e. excludes value of Australian ores processed elsewhere).
2: Nickel metal includes relatively small proportion of nickel oxide, not separately distinguished.
Iron & Steel
Cement (Portland cement)
Aluminium
Gold (from gold ores)
Recycling post-consumer scrap makes a difference
Recycling from post-consumer (old) scrap. The most recycled metals, sorted by:
Value of virgin metal Apparent ratio2 of recycled Mass recovered
    replaced1 / Billion US$       to virgin metal   from recycling
Iron    39 Lead3       1.1 Iron   193 Mt
Copper    5.5 Magnesium3   0.65 Lead    3.3 Mt
Aluminium    4.5 Tin    0.40 Copper    3.3 Mt
Nickel    2.7 Silver    0.40 Aluminium    3.0 Mt
PGMs    2.5 PGMs    0.35 Zinc    1.7 Mt
Zinc    1.7 Nickel    0.35 Chromium    0.7 Mt
Lead    1.6 Iron    0.35 Nickel    0.4 Mt
Silver    1.1 Chromium    0.27 Magnesium   0.2 Mt
Chromium    0.5 Copper    0.25 Tin    0.1 kt
Tin    0.4 Zinc    0.20 PGMs    123 t
Magnesium   0.3 Aluminium    0.12 Silver     7.2 t
1: Value does not account for cost of re-processing recycled material.
2: The apparent ratio combines past and current production - it is not the ultimate fraction recycled
3: Apparent recycling ratio is highest for recycling after short periods of use (e.g. batteries and used beverage cans).
High Volume Wastes and Emissions
Hazardous materials and toxic dispersion
Case Study: WMC Material Flows
Going Forward
"Sustainable Resource Processing"
Sustainable Resource Processing
Performance Improvement
Sustainability Reinforcing Performance Improvement
Case Study: Chaparral Steel
Case Study: General Motors
Case Study: Interface
Australian Case Studies: Minerals Processing
Australian Case Studies continued
Comalco: Bell Bay Aluminium smelter (Tasmania)
dry scrubbing of smelting fumes
fluoride absorbed into ammonia, and fluoride rich ammonia reused in smelting process
95% reduction of ducted F emissions and 70% of total F emissions
70% reduction of water consumption
50% reduction of aluminum fluoride
Iluka : Capel Synthetic Rutile Plant (WA)
integrated heat recovery boiler, generates 6.5 MWh electricity
investment of ~ $ 20 million with pay back of ~ 8 years based on energy savings
avoided wet scrubbing plant with estimated investment cost of ~ $ 9 million
Sun Metals: Townsville Zinc Refinery (Queensland)
environmental controls designed into the new plant and its construction
zero waste water to marine environment
total containment of stormwater
double lined storage areas with leakage monitoring
Opportunity: QNI
Measures to Drive Improvement
Going Forward
"Sustainable Resource Processing"
Sustainable Resource Processing
Regional Synergies
Slide 51
Making a Difference
Stakeholder Partnership
Industrial Ecology Opportunities
Case Study: Kalundborg Industrial Ecology
Slide 56
Case Study: Conoco
Opportunity: Capturing Kwinana Synergies
Case Study: Combating Salinity
Opportunity: Hunter Showcase Concept 1
Building up Momentum
Going Forward
"Sustainable Resource Processing"
Sustainable Resource Processing
Business Leadership
Sustainable Development and Business Leadership
Business Leadership and Governance
Case Study: Alcoa
Case Study: BP
The Safety Parallel
Case Study: Du Pont
Going Forward
"Sustainable Resource Processing"
Sustainable Resource Processing
Research and Development
R&D to Support Key Sustainability Drivers
Focused Projects in a Coherent Framework
Strategic Research
Case Study: Sustainable Ferrous Primary Processing
Opportunities: Life Cycle Driven Innovation
Opportunity: Integrated Strategy for Slags and Residues
Opportunity: Inorganic Polymers
Project Development
Slide 80
Going Forward
"Sustainable Resource Processing"
Sustainable Resource Processing
Organisational Effectiveness
Leadership Opportunity
A Focused Response on Processing: From Project to Network
Sector Level Leadership: Resource Sector Umbrella
Organisational Framework
Going Forward
In Conclusion
Acknowledgements