Over 70 countries have set net-zero targets, and even more have pledged to lower their emissions. However, these widespread objectives for a greener future are straining supplies of natural resources, especially the minerals required to produce energy transition technologies such as electric vehicles (EVs) and solar panels. Many of these minerals are considered critical because resources are either in short supply, monopolized by individual regions, or at risk of significant supply chain disruption. Energy transition objectives will be delayed if critical mineral supply cannot meet demand.
Key Highlights
Demand for clean energy technologies has grown as their capabilities and performance have improved. The imperative to mitigate climate change has further accelerated demand, with consumers putting pressure on corporations and governments to act. Adoption has also been aided by significant reductions in cost over recent years, with solar power, as the fastest-growing energy source, surpassing 1 terawatt (TW) globally in 2022. In the transport sector, electric vehicles will account for 50% of light vehicle production by 2035. However, there are concerns that the affordability of clean energy technologies will be affected by impending shortages as mineral production struggles to keep pace with demand.
Deposits of critical minerals are typically found in specific regions of the world. For example, much of the world’s lithium reserves are concentrated in South America and Australia, the Democratic Republic of the Congo (DRC) provides much of the world’s cobalt, and Indonesia dominates nickel production. The race to control these mineral assets has led to intense rivalries between China, the US, and the EU, with China currently dominating the mineral supply chain and the development of energy transition technologies. The escalating rivalries have resulted in the imposition of trading sanctions by the West to level the playing field, which has disrupted global supply chains leading to market volatility.
Scope
This report provides an overview of the critical minerals theme.
It identifies the main trends surrounding critical minerals and the energy trasition, split into three categories: technology trends, macroeconomic trends, and regulatory trends.
It includes comprehensive industry analysis, including market size forecasts for cybersecurity and analysis of patents, company filings, hiring, and social media trends.
It looks at demand-side drivers for critical minerals, including electric vehicles, solar energy, wind energy, nuclear power, and hydrogen, and supply-side risks for critical minerals, including mineral depletion, resource monopolization, geopolitics, and water stress.
The report includes analysis of critical mineral strategies by region, covering China, the US, the EU, South America, and Canada.
It also incoporates analysis of various signals, including mergers and acquisitions, social media posts, and company filings, and profiles of mining companies producing critical minerals.
Reasons to Buy
Energy transition objectives are key for curbing the harmful effects of fossil fuels on climate change. However, the rapid scale-up of clean energy technologies required to reduce carbon emissions depends upon the intensive mining of several minerals. Due to the projected increase in demand for these minerals, they are classified as critical for achieving energy transition goals.
This report provides a clear and concise introduction to the key issues surrounding critical minerals, with a specific focus on their role in energy transition.
Executive Summary
Players
Thematic Briefing
Critical minerals for energy transition
Trends
Technology trends
Macroeconomic trends
Regulatory trends
Demand-Side Drivers for Critical Minerals
Electric vehicles
Key mineral threats
Solar
Key mineral threats
Wind
Key mineral threats
Nuclear
Key mineral threats
Hydrogen
Key mineral threats
Supply-Side Risks for Critical Minerals
Mineral depletion
Electric vehicles are putting a strain on lithium production
Mineral depletion leads to price volatility
The consequences of decreasing ore grade
Recycling is vital to mitigate shortages
Resource monopolization
Monopolization poses a growing threat
The Russia-Ukraine war exposes mineral vulnerabilities
New battery chemistries are changing the nickel market
The graphite market is diversifying
Geopolitics
Trade wars
Ethics and sustainability
Water stress
The use of seawater in mining is growing in water-scarce regions
Direct lithium extraction – environmentally friendly lithium mining
Critical Mineral Strategies by Region
China
China is investing billions in the African continent
China is considering a rare earth export ban
The US
Escalating efforts to compete with China
The EU
Energy independence ambitions are placing strain on the minerals supply
The EU’s response to the US Inflation Reduction Act
South America
Canada
Canada is home to many critical mineral reserves
Signals
M&A trends
Social media trends
Company filing trends
Companies
Public companies
Private companies
Glossary
Further Reading
GlobalData reports
Our Thematic Research Methodology
About GlobalData
Contact Us
List of Tables
Table 1: Technology trends
Table 2: Macroeconomic trends
Table 3: Regulatory trends
Table 4: Key M&A transactions associated with critical mineral mining since January 2021
Table 5: Public companies
Table 6: Private companies
Table 7: Glossary
Table 8: GlobalData reports
List of Figures
Figure 1: Key companies that could be impacted by the critical minerals theme
Figure 2: China will produce almost 6,000 TWh of electricity generated by non-fossil fuels by 2030
Figure 3: Map of major producing countries of critical minerals
Figure 4: The production of the most critical minerals is dominated by a few countries
Figure 5: Electric vehicles are expected to account for more than 50% of light vehicle production by 2035
Figure 6: Solar power is forecast to account for 15% of global electricity generation by 2035, up from 5% in 2022
Figure 7: Wind power is expected to generate 15% of the world’s electricity by 2035, up from 7% in 2022
Figure 8: The nuclear power market share is expected to plateau between 2022 and 2035
Figure 9: Green hydrogen production expected to increase to 145,886 kilo-tonnes per annum (ktpa) in 2030
Figure 10: The four key risks facing the supply of critical minerals
Figure 11: Lithium supplies are crucial for meeting electric vehicle objectives in 2035
Figure 12: Critical minerals are experiencing substantial price volatility
Figure 13: The low recycling rate of critical minerals is likely to exacerbate shortages
Figure 14: Recycling may be essential to offset production deficits
Figure 15: China dominates much of the critical mineral refinement and processing
Figure 16: Geographic production monopolies are expected to remain relatively unchanged in the short term
Figure 17: Lithium is at the highest risk of supply chain disruption
Figure 18: Batteries are expected to gain a greater share of nickel production end use
Figure 19: The world’s largest natural graphite reserves are outside of China
Figure 20: Key milestones of the US-China trade war since 2018
Figure 21: Copper and lithium mines are typically found in water-stressed regions
Figure 22: Direct lithium extraction is expected to be the more economical, efficient, and environmentally friendly method of brine extraction
Figure 23: Several countries and regions have prioritized the production and acquisition of certain minerals
Figure 24: The flow of foreign direct investment in Africa from China and the US since 2003
Figure 25: The US has reduced its import reliance on several critical minerals
Figure 26: Canada has numerous advanced mineral projects
Figure 27: Deal values increasing since 2020 for nickel, cobalt, and copper projects
Figure 28: Deal volumes increased in 2022 for lithium and rare earth elements
Figure 29: Social media posts on energy transition and mineral trends
Figure 30: Tesla dominates social media posts about critical minerals and energy transition
Figure 31: Energy transition-related mentions have been rising since 2018
Figure 32: Our five-step approach for generating a sector scorecard