About the Project

Who is behind the analysis, where the data comes from, and what methodology was used.

DN
David Navrátil

Chief Economist at Česká spořitelna

This interactive analysis was created as background material for understanding the strategic importance of rare earths in the context of geopolitical changes, the energy transition, and EU industrial policy. The aim is to make the complex topic of raw material security accessible in a clear, data-driven format.

Rare Earth Elements

17 elements forming the rare earth group — 15 lanthanides plus scandium (Sc) and yttrium (Y).

SymbolNameAt. numberGroup
ScScandium21spec.
YYttrium39HREE
LaLanthanum57LREE
CeCerium58LREE
PrPraseodymium59LREE
NdNeodymium60LREE
PmPromethium61
SmSamarium62LREE
EuEuropium63LREE
GdGadolinium64HREE
TbTerbium65HREE
DyDysprosium66HREE
HoHolmium67HREE
ErErbium68HREE
TmThulium69HREE
YbYtterbium70HREE
LuLutetium71HREE

Abbreviations used

REE— Rare Earth Elements
LREE— Light Rare Earth Elements
HREE— Heavy Rare Earth Elements
NdFeB— Neodymium-Iron-Boron magnets
HHI— Herfindahl-Hirschman Index (market concentration)
CRMA— EU Critical Raw Materials Act
CAGR— Compound Annual Growth Rate
BEV— Battery Electric Vehicle
REO— Rare Earth Oxides
EV— Electric Vehicle

Methodology

The analysis is based on consolidation of publicly available data from leading global institutions. Price data are monthly rare earth oxide quotations in USD/kg from publicly available sources.

The correlation matrix is calculated from monthly returns for the period 2014–2025.

The vulnerability index combines five dimensions (weighted according to the EU CRMA methodology — Critical Raw Materials Act):

  • Supply concentration — degree of dependency on a single supplier (HHI index)
  • Substitutability — existence of substitute materials or technologies
  • Recyclability — share of secondary production from waste
  • Price volatility — historical price fluctuation (12M annualized)
  • Strategic importance — role in key technologies (defense, energy, electromobility)

Resulting score 0–30 points. The higher, the more vulnerable the element. Dysprosium (Dy) and terbium (Tb) achieve the highest values due to extreme mining concentration and irreplaceability in permanent magnets.

Data Sources

  • USGS 2025— production, reserves, and supply structure of rare earths
  • IEA— demand projections by energy transition scenarios
  • Public price sources— historical rare earth oxide prices (monthly series)
  • Proprietary estimates and calculations— supply chain analysis, project pipeline, demand projections
  • EU CRMA— Critical Raw Materials Act, 2030 benchmark targets

Disclaimer

All data is provided for informational purposes only and does not constitute investment advice. Projections are based on currently available data and assumptions, which are subject to change.