
Osmond’s target minerals sit inside the technologies Europe is building this decade.
Plate — European value chain (illustrative)
Aim is to reduce dependence on countries outside of the EU for critical raw materials
At least 10% of EU annual consumption from EU
At least 40% of EU annual consumption from EU
At least 25% of the EU’s annual consumption from domestic recycling
Not more than 65% of the EU’s annual consumption of each strategic raw material at any relevant stage of processing from a single third country
- Maximum of 27 months permitting timetable for Strategic Projects involving extraction
- Single point of contact for all things permitting.
- 01Aluminium/Bauxite/Alumina
- 02Coking Coal
- 03Lithium
- 04Phosphorus
- 05Antimony
- 06Feldspar
- 07Light rare earth elements
- 08Scandium
- 09Arsenic
- 10Fluorspar
- 11Magnesium
- 12Silicon metal
- 13Baryte
- 14Gallium
- 15Manganese
- 16Strontium
- 17Beryllium
- 18Germanium
- 19Natural Graphite
- 20Tantalum
- 21Bismuth
- 22Hafnium
- 23Niobium
- 24Titanium metal
- 25Boron
- 26Helium
- 27Platinum group metals
- 28Tungsten
- 29Cobalt
- 30Heavy rare earth elements
- 31Phosphate Rock
- 32Vanadium
- 33Copper
- 34Nickel
The Orión Critical Minerals Project has the potential to help the EU to meet its 2030 Extraction Goals

EU Production: Nil or Negligible European Extraction
Source: EU Consumption – SCRREEN Factsheets CRMS 2023 / EU Production – USGS Mineral Commodity Summaries 2024. Demand in metric tonnes, 2016-2020 average, 20% added for GDP rises.



Rare Earth Elements (REE)
EV motors · Wind turbines · Defence
Zirconium / Hafnium (ZrSiO₄)
Nuclear · Ceramics · Semiconductors
Titanium (TiO₂)
Aerospace alloys · Pigments · Medical implants
Rare earths from monazite power the permanent magnets in EV traction motors.
Neodymium and dysprosium drive the generators inside modern wind turbines.
Titanium from rutile forms the backbone of high-performance airframes.
Zirconium and hafnium underpin semiconductors, ceramics, and nuclear alloys.

