News News
Contact us
  • Customer service number:64321087
  • Commercial service telephone:13918059423
  • Technical service telephone:13918059423
  • Contact person: Mr. Cui 
  • Service email:shxtb@163.com
  • Address: room 107, building 8, no. 100, guilin road, xuhui district, Shanghai

Scientists find new way to tap into new rare earths deposits

The date of: 2020-10-12
viewed: 1

source:Mining.com

Researchers at the University of Exeter and the Australian National University published a study that may help pinpoint new, untapped neodymium and dysprosium deposits.

In the paper – which appeared in the journal Science Advances – the scientists explain that they conducted a series of experiments that showed that sodium and potassium – rather than chlorine or fluorine as previously thought – were the key ingredients for making these rare earth elements soluble.

According to the experts, this is crucial as it determines whether they crystalize – making them fit for extraction – or stay dissolved in fluids.

In detail, the team led by Michael Anenburg simulated the crystallization of molten carbonate magma to find out which elements would be concentrated in the hot waters leftover from the crystallization process.

The trial showed that sodium and potassium make the rare earths soluble in solution. Without sodium and potassium, rare earth minerals precipitate in the carbonatite itself.  With sodium, intermediate minerals like burbankite form and are then replaced. With potassium, dysprosium is more soluble than neodymium and carried out to the surrounding rocks.

“My tiny experimental capsules revealed minerals that nature typically hides from us. It was a surprise how well they explain what we see in natural rocks and ore deposits,” Anenburg said in a media statement.

For co-author Frances Wall, the experiment turned out to be an elegant solution that helps better understand where ‘heavy’ rare earths like dysprosium and ‘light’ rare earths like neodymium’ may be concentrated in and around carbonatite intrusions. 

“We were always looking for evidence of chloride-bearing solutions but failing to find it. These results give us new ideas,” Wall said.

Neodymium and dysprosium are essential for the production of digital devices and clean energy infrastructure such as wind turbines and electric car motors.



Hot News / Related to recommend
  • 2024 - 07 - 26
    Click on the number of times: 0
    Surface oxygen functionality controls selective transport of metal ions through graphene oxide membranessource: Pacific Northwest National LaboratoryDeveloping efficient, selective, and scalable separ...
  • 2024 - 07 - 25
    Click on the number of times: 0
    source:Helmholtz Association of German Research CentresThe special properties of rare earth magnetic materials are due to the electrons in the 4f shell. Until now, the magnetic properties of 4f electr...
  • 2024 - 07 - 25
    Click on the number of times: 0
    source:SMALL CAPSGold Mountain (ASX: GMN) has defined a series of high-priority drill targets at its Down Under project in Brazil’s Bahia state after confirming key pathfinders for high-grade rare ear...
  • 2024 - 07 - 25
    Click on the number of times: 0
    Synthesis of a new compound with excellent intrinsic magnetic properties using smaller amounts of rare earth elementssource: National Institute for Materials ScienceThe National Institute for Material...
  • Copyright ©Copyright 2018 2020 Shanghai rare earth association All Rights Reserved Shanghai ICP NO.2020034223
    the host:Shanghai Association of Rare Earth the guide:Shanghai Development and Application Office of Rare Earth the organizer:Shanghai rare earth industry promotion center
    犀牛云提供云计算服务