The transition to renewable energy from fossil fuels will both fundamentally change the structure of minerals demand, and the process of mining. The mining and exploration sector in its current form may struggle to re-align mineral production to match these new demand patterns, whilst at the same time undergoing a significant shift in production technology.
The ‘CET Scenarios’ Programme was established to investigate structural discontinuities, of this kind, in the future of mining. One discontinuity investigated was the energy transition. Two scenarios were developed: one involving a voluntary and complete energy transition driven by industrial innovation and framed by concerns over sustainable development (‘Wonderland’); and another with a forced and partial energy transition driven by government and framed by geopolitical (strategic) concerns over raw materials security (‘1984’).
Following the development of the scenarios further research was conducted into the interaction of the mining and exploration sector with the energy transition, sustainable development and resource security, with the aim of better informing corporate strategy.
The strategic recommendations to the mining and exploration sector for re-aligning with changing, but unknown minerals demand patterns, and exploration and production technologies, included techniques for monitoring ‘progress in transition’, ‘horizon scanning’, market analysis, capabilities analysis, and ensuring strategic coherence.
An emphasis was placed on developing creative, social, adaptable and varied thinking skills amongst mining and exploration sector professionals and researchers.
NOTE: This presentation was made in 2018 not 2011!!!
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A Mining and Exploration Industry Perspective on the Energy Transition
1. John Sykes1234, Allan Trench125,
T. Campbell McCuaig16, and Mark Jessell1
1. Centre for Exploration Targeting, SES, UWA;
2. Business School, UWA;
3. MinEx Consulting, Australia;
4. Greenfields Research, UK;
5. CRU Group, UK;
6. Geoscience Centre for Excellence, BHP, WA.
GSA Earth Sciences Student Symposium
Perth, Australia: 29th November 2011
A MINING AND EXPLORATION
INDUSTRY PERSPECTIVE ON
THE ENERGY TRANSITION
Image: Greenbushes Li-Ta-Sn mine, Western Australia; Source: Google Earth
2. GOOD PHD RESEARCH STARTS WITH THE PHILOSOPHY
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 2 of 35
Why am I here?
And how did I get here?
Image: Rodin’s ‘Thinker’; Source: Steven Fettig (Flickr)
3. MY PHD RESEARCH AIMED AT TWO QUESTIONS
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 3 of 35
What are the mines of the future? How do we find them?
TOGETHER: What is the future of minerals exploration?
Image: Xenophyophore on a cobalt-rich seamount; Source: World Ocean Review Image: Drone; Source: Shutterstock
4. COMPLEX QUESTIONS REQUIRING CREATIVE THINKING
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 4 of 35
Scenario, in film making, original idea for a film translated into a visually oriented text.
The scenario plan gives the mood of each image and its relationship with the other shots in the sequence. The
writer… sets up [the] shot according to… directions that are given in the scenario… the exact length of each
shot, giving every word of dialogue, and describing all sound effects and the music to be used in each scene...
A director may dispense with the scenario and direct the action according to his own concept of what best
brings out the theme. Usually the director works with the scenario’s basic instructions and, as the filming
progresses, adapts them to the evolving action.
Source: Encyclopaedia Britannica
5. THE CET ‘FUTURE OF MINERALS EXPLORATION’ SCENARIOS
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 5 of 35
Background
Research
Test
Scenarios
Workshop 1
(Trial)
Workshop 2
(Expert)
Workshop 3
(Expert)
Findings
Today’s focus
6. DEVELOPING THE SCENARIOS WAS FUN… (SORT OF)
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 6 of 35
BUT THEY DID LEAD TO A SERIOUS POINT…
7. NAVIGATING THE ENERGY TRANSITION IS COMPLEX
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 7 of 35
Wonderland
1984
Left behind
High tech
Discworld
NOW
(An unknown
number of
economic cycles
to come)
Low tech
(Beyond which is
the unknown)
‘Economic paradigm’
‘Sustainability
paradigm’
‘Strategic paradigm’
‘Transition’
Images: Amazon
8. FIRST SURVIVE OUR ‘OLD WORLD’ OR ‘DISCWORLD’
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 8 of 35
OLD
ECONOMY
STRATEGIC
RESOURCES INEQUITY
PROTECTIONI
SM
STRATEGIC
RESOURCES
ISIS
BIG
MINING
ECONOMIC
PARADIGM
COAL
POWER
POLLUTION
WASTE
PETROL
CARS
…with an unknown number of economic cycles to come, so you have to be good at ‘business as usual’
BOOM &
BUST
BIG OIL
9. KNOW WHEN TO STEP THROUGH THE ‘TRANSITION’
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 9 of 35
…but into which future?
Image: Shutterstock
10. …ALL WE KNOW IS THAT IT CAN BE VOLUNTARY OR FORCED
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 10 of 35
WONDERLAND NINETEEN EIGHTY-FOUR
(common in Eastern culture) (common in Western culture)
Images: Maya Eilam
11. THEN THRIVE IN THE FUTURE: WONDERLAND?
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 11 of 35
GREEN
ECONOMY
STRATEGIC
RESOURCES
SILICON
VALLEY
PROTECTIONISM
STRATEGIC
RESOURCES
ISIS
DISRUPTION
SUSTAINABILITY
PARADIGM VOLATILITY
CETA DEAL
INNOVATION
PARIS
AGREEMENT
Disruptive innovation within a global regulatory framework allows leads to voluntarily energy transition
GLOBALISATION TESLA
Images: Shutterstock
12. THEN THRIVE IN THE FUTURE: NINETEEN EIGHTY-FOUR?
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 12 of 35
NEW
WORLD
STRATEGIC
RESOURCES
BREXIT
PROTECTIONISM
STRATEGIC
RESOURCES
ISIS
OLD
WORLD
MILITARY-
INDUSTRIAL
COMPLEX
TRUMP
STRATEGIC
PARADIGM
WAR
PROTECTIONISM
PUTIN
ISIS
Geopolitics and conflict forces a government-led energy transition in the fossil-fuel poor parts of the world
Images: Shutterstock
13. GOOD PHD RESEARCH ALSO ENDS WITH THE PHILOSOPHY
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 13 of 35
BUT
The scenarios are only the
beginning of the ‘thinking’
not the end of it… so
what have I been thinking
about? Image: Rodin’s ‘Thinker’; Source: Steven Fettig (Flickr)
14. THE SCENARIOS REFLECT SUPPLY CONSTRAINTS
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 14 of 35
antimony, arsenic, barium, beryllium, bismuth,
boron, cadmium, chromium, cobalt,
gallium, germanium, graphite,
indium, lithium, magnesium,
manganese, mercury, molybdenum, niobium,
PGMs, rare earths, rhenium,
selenium, silicon, silver, strontium, tantalum,
tellurium, thorium, tungsten, vanadium
Components of ‘criticality’
ECONOMIC
PARADIGM
Important uses
STRATEGIC PARADIGM
Potentially geopolitically
restricted production, e.g.
USDOE critical metals reports
SUSTAINABILITY PARADIGM
Potentially environmentally /
socially restricted production,
e.g. EU critical metals reports
‘China produces 95%
of the rare earth
metals…’
“Dust emissions from the
mining of… graphite had
become a major issue, air
pollution from dust had
become… known as
graphite rain.”
- Olson, 2017
Sources: Sykes et al., 2016a,b
15. NEW TECHNOLOGIES REQUIRE NEW METALS
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 15 of 35
RENEWABLES METALS
Uranium
Rare earths (neodymium,
praseodymium &
dysprosium) – in the
generator magnet
Silicon & germanium;
Gallium-arsenide;
Copper-indium-gallium-selenide (CIGS);
Cadmium-telluride
Images: Shutterstock; Wikipedia;solarchoice
Lead-acid Alkaline (zinc-
manganese)
Lithium-ion
(graphite & cobalt)
Nickel-cadmium
/ zinc
Nickel metal (lanthanum-
rare earth) hydride
Vanadium redox
BATTERY METALS
16. WE CANNOT ‘REDUCE, REUSE AND RECYCLE’ TO GROWTH
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 16 of 35
1 10 100 1000 10000 100000 100000010000000
1000000001E+09
Gallium
Indium
Lithium
Cobalt
Silicon
Vanadium
Nickel
Rare Earths
Germanium
Copper
Manganese
Zinc
Graphite
Selenium
Cadmium
Lead
Tellurium
Arsenic
Theoretical Total Available for Recycling (tonnes)
0 20 40 60 80 100
Gallium
Indium
Lithium
Cobalt
Silicon
Vanadium
Nickel
Rare Earths
Germanium
Copper
Manganese
Zinc
Graphite
Selenium
Cadmium
Lead
Tellurium
Depletion Index for Material Available for Recycling (years)
Data: USGS
17. WE CANNOT ‘REDUCE, REUSE AND RECYCLE’ TO GROWTH
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 17 of 35
We mine ‘commodities’ but recycle ‘products’ thus not all commodities are
amenable to high levels of recycling
45%
55%
Lead Production (2012)
Primary Secondary
Landfill ‘mining’ maybe as socially and environmentally
problematic as conventional mining
Image: Guardian (Javad Tizmaghz)
Source: ILA
37%
33%
10%
5%
5%
1%
9%
Lithium Consumption (2015)
Batteries Ceramics & Glass
Lubrication Purification
Flux Aluminium
Other (inc. pharma)
Source: USGS
18. …AND THE MINING INDUSTRY IS STRUGGLING…
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 18 of 35
Molycorp files for
bankruptcy as rare
earth prices drop
- Bloomberg, 25 June 2015
Graphite junior
Triton Minerals in
shock collapse
- The Australian, 4 March 2016
Valence
Industries
enters
voluntary
administration
- Australian Mining, 20
July 2016
Year-end turn in rare
earth prices seen as
Lynas losses near $1b
- The Sydney Morning Herald, 10
March 2016
Integrated
business
still a Galaxy
away
- The Australian
Mining Review, 27
March 2013
RB Energy
shutters Quebec
lithium mine as
financing fails
Financial Post,
8 Oct 2014
Great Western
Minerals is
Bankrupt
- Newswire, 3 Dec 2015
* Galaxy Resources’ Mt Cattlin mine
re-opened in 2017 (Source: ABC)
* Triton
Minerals re-
listed later in
2016 (Source:
Proactive
Investors)
19. NONETHELESS SOME METALS HAVE POTENTIAL
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 19 of 35
Metals Constraints removed
Graphite Discovery Sup. Use
Copper Dis. Supply Use
Germanium Dis. Sup. Use
Indium Dis. Sup. Use
Tellurium Dis. Sup. Use
Arsenic Discovery S Use
Gallium Dis. Sup. Use
Selenium Dis. Sup. Use
Silicon Dis. Sup. Use
Cobalt Dis. S Use
Lithium D Sup. Use
Metals Constraints removed
Nickel Dis. Sup. U
Vanadium Dis. Sup. U
Lanthanum D S Use
Lead Discovery S
Cadmium Dis. Sup.
Manganese Dis. S U
Zinc Dis. S U
Neodymium D S Use
Praseodymium D S Use
Dysprosium D Use
Uranium D S
Fully
unconstrained
Fully
unconstrained
Most
constrained
Least
constrained
Source: Sykes et al., 2016a
20. BUT ENVIRONMENTAL & SOCIAL FACTORS ADD COMPLEXITY
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 20 of 35
Energy transition
requires electric
vehicles
Increased
mining of rare
earths in China
Questionable
environmental and
social impacts
Switch back to ferric
magnets required?
Electric vehicles
require better
motor magnets
Rare earth
magnets are
technically better
Image: Reuters
Based on: Widmer et al., 2015
Rare earth magnets case study
21. MINING IS IMPACTED BY THE ENERGY TRANSITION TOO
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 21 of 35
0%
10%
20%
30%
40%
50%
60%
70%
80%
90%
100%
Surface Mine UG Mine Mill
Other
Steel
Equipment,
Tyres & Parts
Explosives &
Reagents
Fuel &
Electricity
Labour
Data: CostMine, July 2016
Solar power at Sandfire Resources
Degrussa mine, WA
All electric underground mine planned
by Goldcorp at Borden, Canada
Wind power for copper mines in Chile
owned by Barrick
‘Flexicycle’ using biodiesel power at
Pueblo Viejo, Dominican Republic (Barrick)
22. …WITH MULTIPLE FACTORS CAUSING THE TRANSITION
29 Nov 2018
A Mining and Exploration Industry Perspective on the Energy Transition
Slide 22 of 35
Movement towards all
electric underground
mines
Focus on
greenhouse gas
reduction
Health concerns
surrounding diesel
emissions in
confined spaces
Improved
battery
technology
Volkswagen
NOX & SOX
emission scandal
Movement
towards
underground
mines
Focus on social &
environmental
footprint of
surface mining
Fewer surface
mineral deposits
awaiting
discovery
MOVEMENT TOWARDS ALL
RENEWABLE ELECTRIC
UNDERGROUND MINING?
Improved
automation and
remote technology
Safer
underground
mines
23. GOOD PHD RESEARCH ALSO ENDS WITH THE PHILOSOPHY
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 23 of 35
SO…
What does all this mean?
Image: Rodin’s ‘Thinker’; Source: Steven Fettig (Flickr)
24. THANK YOU
29 Nov 2018
A Mining and Exploration Industry Perspective on the Energy Transition
Slide 24 of 35
Contact details:
• John Sykes: john.sykes@research.uwa.edu.au
• Allan Trench: allan.trench@uwa.edu.au
We’d like to acknowledge the efforts of the Centre for Exploration
Targeting scenario planning team whose work contributed to this
presentation:
• John Sykes, Allan Trench, T. Campbell McCuaig, Jonathan Bell, Jeremie Giraud,
Constanza Jara Barra, Ahmad Saleem, Dave Stevenson and Jan Tunjic.
We’d also like to acknowledge the following collaborators for their
contributions to this research:
• Sam Davies, Aaron Dixon, Mark Jessell, Heta Lampinen, Cam McCuaig, Paul Miller,
Nico Thebaud & Josh Wright.
Image: Shutterstock
25. REFERENCES
Conference abstract volume and…
• Sykes, J.P. and Trench, A. (2016), MiningNews.net [online], 13 June.
• Wright, J., Sykes, J.P. and Trench, A. (2016), Metal Pages China Metals Week Conference,
Beijing, 6 September.
• Sykes, J.P., Trench, A. and Wright, J. (2016), Mines and Money Conference, London, 29
November.
• Sykes, J.P., Trench, A., Stevenson, D., Wright, J., Davies, R.S. and Dixon, A. (2017), Prospectors
and Developers Association of Canada Conference, Toronto, 7 March.
• Sykes, J.P., Trench, A., Wright, J., Davies, R.S. and Dixon, A. (2017), World Renewable Energy
Congress, Perth, 6 February.
• Sykes, J.P. (2017), Oxford Futures Forum, Oxford, 2 June.
• Sykes, J.P. and Trench, A. (2017), AIG Battery and Strategic Metals Conference, Perth, 10
November.
29 Nov 2018
A Mining and Exploration Industry Perspective on the Energy Transition
Slide 25 of 35
Image: Shutterstock
26. APPENDICES
The impact of the renewable energy transition on battery & strategic metal markets
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 26 of 35
Images: Shutterstock
27. ENERGY METALS MARKET GROWTH HAS BEEN VARIED
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Slide 27 of 35
0
100
200
300
400
500
600
700
800
2005 2006 2007 2008 2009 2010 2011 2012 2013 2014
Growth of metal market groups
2005-14 (US$ billions)
Base Metals Precious Metals
Minor Renewables Metals Minor Battery Metals
Minor Critical Metals
Battery Metal 2006-15 Price Change
Rare earths 257%
Lithium 155%
Graphite 126%
Manganese 51%
Zinc 32%
Lead 18%
Cobalt -5%
Nickel -51%
Cadmium -51%
Vanadium -47%
Source: USGS (2015)
For category definitions see appendices
Renewables Metal 2005-14 Price Change
Silicon 114%
Arsenic 83%
Germanium 32%
Selenium -10%
Tellurium -13%
Copper -19%
Uranium -23%
Gallium -28%
Indium -36%
28. CATEGORY DEFINITIONS FOR SLIDE 34
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 28 of 35
• Precious metals: gold, platinum groups metals & silver
• Base metals: aluminium, copper, lead, nickel, tin & zinc
• Renewables metals: arsenic, gallium, germanium, indium, rare earths, selenium, silicon, tellurium & uranium
• Minor battery metals: cadmium, cobalt, lithium, manganese & vanadium
• Other minor critical metals: antimony, barium, beryllium, bismuth, boron, chromium, magnesium, mercury,
molybdenum, niobium, rhenium, strontium, tantalum, thorium, titanium & tungsten
29. THE MINING SECTOR AND INVESTORS HAVE PILED IN!
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A Mining and Exploration Industry Perspective on the Energy Transition
Slide 29 of 35
2005 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015 2016
Lithium Rare Earths Graphite Lithium (again)
Talison Lithium to
raise $194m in IPO
Business News WA,
24 Nov 2009
RARE EARTHS BECOME
HOT COMMODITIES – US
IPO UP FIVEFOLD IN 10
MONTHS
TheBull.com.au, 06 Jun 2011
Why these graphite
miners have soared
more than 87%
The Motley Fool,
24 Jun 2014
Lithium-ion
battery demand
sends shares in
miners soaring,
but analysts
predict bubble
will burst
ABC, 14 Jun 2016
They’ve got the power:
Battery stocks charging
up, analysts say
The Sydney Morning Herald, 2 Jul 2014
Uranium
Investors put
stock in
uranium
ABC, 24 May 2006
30. EVIDENCE OF PAST TRANSFORMATIVE MARKET GROWTH
29 Nov 2018
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Slide 30 of 35
0
100
200
300
400
500
600
700
800
900
1900
1909
1918
1927
1936
1945
1954
1963
1972
1981
1990
1999
2008
Growth in market size indices of
copper and aluminium 1900-2014
(1900 = 1)
Cu Index Al Index
0
50
100
150
200
250
300
1900
1909
1918
1927
1936
1945
1954
1963
1972
1981
1990
1999
2008
Growth in market size indices of
copper and nickel 1900-2013
(1900 = 1)
Cu Index Ni Index
0
5
10
15
20
25
30
1950
1955
1960
1965
1970
1975
1980
1985
1990
1995
2000
2005
2010
Growth in market size indices of
copper and uranium 1950-2013
(1950 = 1)
Cu Index U Index
Data: USGS
31. INSTIGATED BY DISCOVERY, SUPPLY AND DEMAND
29 Nov 2018
A Mining and Exploration Industry Perspective on the Energy Transition
Slide 31 of 35
Nickel
Discoveries in Sudbury &
New Caledonia
Bulk open pit
mining
Flotation & smelting
advances
Demand for
armour
Ability to handle
radiation
Uranium
Demand for
nuclear
weapons
Demand for
nuclear power
Bulk mining for very low
grade radium
Radium-uranium
discoveries in the
Congo
Aluminium
Bauxite discoveries
in North America
Bayer and Hall-Heroult
processes
Aviation demand
Bulk open pit mining
Source: Sykes et al., 2016b
Images: Shutterstock
32. SOME ENERGY METALS MARKETS HAVE MORE POTENTIAL
29 Nov 2018
A Mining and Exploration Industry Perspective on the Energy Transition
Slide 32 of 35
Final
market
size
potential
Lack of discovery, supply & demand constraints on the market
High potential and few constraints
Low potential but few constraints
High potential but many constraints
Low potential and many constraints
Nd
Si
Se
As
Te
Cu
Ga
Ge
In
Pr
Dy
U
Source: Sykes et al., 2016a
Co
Li
La
V
Cd
Mn
Ni
Zn
Pb
C
33. SOME ENERGY METALS ARE ENVIRO-SOCIALLY
CONSTRAINED
29 Nov 2018
A Mining and Exploration Industry Perspective on the Energy Transition
Slide 33 of 35
Ability
to
resolve
constraint
Type of market constraints
Resolvable societal constraints
e.g. conflict
Unresolvable societal constraints
e.g. toxicity
Resolvable technical constraints
e.g. processing challenges
Unresolvable technical constraints
e.g. geological scarcity
Source: Sykes et al., 2016a
Pr
U
Se
Dy
Ga Si
Nd
As
Cu
Te In
Ge
Co
Li La
V
Cd
Mn
Ni
Zn
Pb
C