Tag: rare earth metals

  • The race to mine the moon

    The race to mine the moon

    More than half a century has passed since John F. Kennedy delivered his iconic ‘We choose to go to the moon’ speech at Rice University.

    What followed was a titanic space race which captivated the world and saw the US and Soviet Union battle it out to become the first country to put man on another world.

    Fast forward six decades and history is starting to repeat itself — except this time there are more nations involved and the motive has changed.

    Rather than being about national pride and establishing technological superiority, the likes of China, Russia, India and the US are now interested in the moon’s valuable resources and how they can be mined.

    From rare Earth metals used in smartphones to helium that could perhaps provide an invaluable source of energy, the lunar surface is a multi-quadrillion-pound hotbed of unearthed riches.

    A new space race: From rare Earth metals used in smartphones to helium that could perhaps provide an invaluable source of energy, the lunar surface is a hotbed of unearthed riches. This graphic shows the cold, dark craters of the moon’s south pole which scientists think could house rare metals, helium and water ice, plus proposed landing sites by global space powers

    And that includes H20.

    Deposits of frozen water – which could be used not only for drinking but also broken down into hydrogen for fuel or oxygen to breathe – are scattered across the moon’s south pole.

    That is why NASA has proposed a series of landing sites around it for its new Artemis programme, which aims to return human boots to the moon by 2025.

    India has also just landed its Chandrayaan-3 spacecraft near Manzinus crater close to the south pole, while Russia had been hoping to explore a similar site near Boguslavsky crater before its Luna-25 probe crashed earlier this month.

    Meanwhile, China is planning to send its taikonauts to the lunar surface by 2030 and has identified a number of similar landing sites as the US space agency, prompting fears of about potential conflict.

    One of the concerns expressed by NASA chief Bill Nelson is that Beijing could begin staking claims to territory on the moon under the guise of scientific research.

    China has rubbished this but there is still a fair degree of unease among scientists about how the moon’s resources are going to be policed.

    Previous attempts to govern it, including the Moon Agreement of 1979, have failed to garner international consensus, with neither the US, Russia or China signing it.

    So just what are these nations – plus a host of private companies – looking to mine on the moon?

    Water 

    For a start, thanks to analysis by NASA’s Lunar Reconnaissance Orbiter (LRO), experts think the lunar poles have over 600 billion kilograms of water ice — enough to fill at least 240,000 Olympic-sized swimming pools.

    Considering there’s more than a billion cubic kilometres of water on Earth, it may seem strange to think of it being highly sought after.

    Water is one of the most valuable resources on the moon and is mostly located in craters at the south pole, left, and north pole, right. The blue in the images represents areas of surface ice

    Water is one of the most valuable resources on the moon and is mostly located in craters at the south pole, left, and north pole, right. The blue in the images represents areas of surface ice

    But the reason it is viewed as an almost priceless resource is because of what it could mean for the future of our civilisation and the potential to explore planets beyond our own.

    That’s because it is very difficult to get a lot of water off Earth and into space due to its weight, with the cost of blasting one cubic metre of it into low Earth orbit coming in at an exorbitant £1 million (£830,000).

    This means that having access to water already in space would be invaluable, not just for astronauts to drink and wash, but to get them to distant planets in the solar system.

    As the water molecule is H20 – made up of two atoms of hydrogen and one atom of oxygen – it has the liquid oxygen and hydrogen needed to create rocket fuel.

    This rocket fuel could then be used to blast a human spaceship from the moon off to Mars and beyond.

    Metals

    Scientists believe there could be a number of rare earth metals hidden in the moon’s south pole’s cold dark craters, such as Shackleton, Shoemaker, de Gerlache and Haworth.

    These metals are vital in emerging technologies, as well for use in smartphones, computers, hybrid car batteries and medical equipment.

    Among the rare metals experts think could be in high quantities on the moon are scandium and yttrium, which could be used in vehicle engines, to make glass or ceramics, electronic devices and radar systems.

    Resources: This colourised image of the moon reveals the presence of different materials

  • Polish Briefing: Poland’s quest for rare minerals I Bogdanka mine wants to go green

    Polish Briefing: Poland’s quest for rare minerals I Bogdanka mine wants to go green

    Poland is looking for a substitute for lithium and other rare earth metals

    Poland is exploring the possibility of using a substitute for lithium and other rare earth metals. “The raw materials policy defines those raw materials that are used today. Today it is apparent that the energy transition makes it necessary to develop economic areas, which we should launch in our country. If we define the areas that we will launch in Poland, then we can adjust the needs for raw materials. Perhaps some of these needs are met, so we will open a discussion and try to introduce the point of view that not only critical raw materials are necessary, but they can also be replaced by other generally available raw materials, such as rare earth metals, lithium,” said Deputy Minister of Climate and Environment Piotr Dziadzio, Chief Geologist of the Country.

    “We should look for substitutions for raw materials and that is what we are doing. I do not want to reveal the details now, but in the coming weeks there may be additional information on this subject,” added minister Dziadzio.

    Lithium is used for the production of electric car batteries, among others. Rare earth metals are used to make semiconductors, which are an essential element of electronics, military equipment or vehicles. They are also needed for the energy transition.

    Wojciech Jakóbik / Jedrzej Stachura

    Bogdanka’s new strategy to turn the mine green

    Bogdanka Lubelski Węgiel presented a development strategy that involves more coal mining until the mine is closed in Poland, and in the meantime investments in renewables, their components and recycling.

    “The average level of coal production in 2023-2025 will be approx. 9.1 million tonnes, in the years 2026-2030 approx. 10.1 million tonnes, and in 2031-2040 approx. 9.1 million tons,” the new Bogdanka strategy announced in Lublin on May 17 said. Bogdanka intends to maintain more than half of the market share of coal.

    One of the priorities is to “guarantee production by 2049 by starting production from the K-6 and K-7 resource base in 2024 and preparing for the availability of a vertical Ostrów field, which after 2038 will guarantee the flexibility and energy security of the state in the energy transition.” The social contract with Polish miners provides for the pahse-out of mines by 2049.

    The company also declares “support for Ukraine’s energy recovery through the use of Bogdanka’s competencies and resources, which can actively support the reconstruction of critical infrastructure in Ukraine after the war.”

    Bogdanka is also expected to develop multi-resource mining based on the exploration and commercial extraction of a number of minerals crucial for sustainable transformation and attractive to the market. The aim is also to produce res components, i.e. foundation baskets for wind farms and structures for the installation of PV panels. The mine also wants to scale up RES installations to diversify Bogdanka’s revenue stream by adding 500MW RES installations and selling the energy produced by them, as well as trading batteries and PV waste.

    LW Bogdanka / Wojciech Jakóbik

  • Belgium leads the way in rare earth metals recycling

    Belgium leads the way in rare earth metals recycling

    Belgium is a European leader in recycling, one of the few nations to meet recycling targets set out by the EU. Other than household and commercial waste, Belgian recycling plants are now helping to reduce Europe’s dependence on foreign minerals.

    Rare earth metals, commonly used in the production of high-tech goods, are desperately needed for the European economy. China has a monopoly on the supply of these metals, producing up to 97% of the world’s supply.

    In July, China placed export restrictions on gallium and germanium metals, which are indispensable for the production of advanced chips.

    China accounts for about 80% of the global production of gallium, which is used in integrated circuits, LEDs and solar panels, among others. The country also dominates the production of germanium, which is used in the production of fibre-optic cables and infrared applications.

    The European Commission is concerned that restrictions on exports of certain rare earth metals will impact EU supply chains, especially within the context of growing demand for these metals for the green transition. It wants to reduce dependence on third countries such as China to 65% for imports of 18 critical resources.

     

    Rare metals from scrap

    Belgian companies want to play a role in the transition away from reliance on rare earth metals imports. Even if Europe is not well-suited for the extraction of these precious metals, it can play a role in reducing imports, notably through recycling.

    One factory in Liège is one of the very few places in Europe to process metallurgy-related waste and recover the valuable rare earth metals. Hydrometal has been extracting gallium and germanium from waste for nearly 20 years. However, this is no simple process.

    “It’s very precise, difficult to make profitable, very competitive, and you can’t find a lot of raw materials on the market. It really requires specific knowledge and specific chemistry. Our factory is the only one in Wallonia. Today, there are two actors in Belgium who can do it, and only two actors in Europe too,” Phillipe Henry, administrator of Hydrometal, told RTL Info.

    Recent Chinese export restrictions have caused prices on the market to skyrocket. The current market price for gallium is $614 per kg, and $2,716 per kg for germanium. Faced with these rising prices, recycling has become a more profitable endeavour.

    “We are contacted almost every day to be able to respond to these challenges. They will not be easy, because we have to remain competitive, answer also have to see if it can be maintained in the long-term,” Henry noted.

    For now, Belgian companies are focused on the extraction of rare earth minerals from waste in the metallurgy industry. Granted, much of our tech and smartphones contain highly sought after rare earth metals, but these amounts are still too small to be profitable for major recycling companies.

    The amounts contained in phones amount to just a few grams per tonne, and it is not currently viable to extract gallium, germanium, or indium from them, at least in Belgium.

    While recycling plays an important role in reducing dependence on Chinese exports, Europe may soon switch to encouraging their extraction from European soil. Currently, no rare earth metals are mined in Europe.

    But new studies have revealed massive deposits of valuable rare earth metals, which could feasibly be extracted. In Sweden, mineral group LKAB discovered an untapped reserve of more than 10 million tonnes of oxides, the largest known deposit of its kind in Europe.

    The EU will reflect on the possibility of the opening of new rare earth metal mines in Europe, but will likely still face resistance from locals due to environmental concerns. The largest potential extraction site for Europe is at Kvanefjeld in Greenland, but extraction has been prevented by indigenous groups and local residents.

    The need to find new solutions is growing. Last year, European Commission President Ursula von der Leyen predicted that “Lithium and rare earth metals will soon be more important than oil and gas.”

  • Extraction and processing of rare earth metals of the Kundybai deposit

    Extraction and processing of rare earth metals of the Kundybai deposit

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    Annual capacity:

    • Ore containing REM – 3 million tons.

    Project

    The project provides for the development of the Kundybai deposit of rare earth elements. The deposit, due to the discontinuous arrangement of four ore bodies, will be mined in three separate open pits. It is planned to use an open pit mining method.

    Company

    The initiator is Kundybai Mining JSC, whose main activity is geological exploration and surveys without scientific research and development. The initiator is in the process of obtaining a license for the extraction of solid minerals (REM) at the Kundybai deposit (4 open pits with a geological allotment area of ​​31.2 sq. km).

    Market

    • China showed an average annual positive growth rate of REM production of 12.5% ​​from 2017 (105 thousand tons) to 2021 (168 thousand tons). According to the plan of the Ministry of Natural Resources of China, quotas for mining and smelting will increase by 20% and amount to 202 thousand tons and 194 thousand tons, respectively.
    • Between 2017 and 2021 The Chinese government has taken a number of measures to limit the export of raw materials containing REM (concentrates, carbonates and other compounds) in order to localize the production of highly processed products from REM. As a result, China increased its share in the structure of world exports of processed REM products from 50% (5.5 thousand tons) in 2017 to 64% (8.8 thousand tons) in 2021.
    • The level of world mine production of REM has been continuously growing from 132 thousand tons in 2017 to 280 thousand tons in 2021, demonstrating a rapid CAGR of 20.7%.

    What is the attraction of the project?

    • Estimation of deposit reserves. Statement of reserves on the state balance was made in 2012. Kundybay is one of the richest deposits of REM in Central Asia. The deposit has 25 thousand tons of approved reserves of REM oxides in category C2. The volume of ore reserves with an average REM content of 0.051% is 49 million tons.
    • Developed infrastructure. The field is located 50 km south-west of the city of Zhitikara, near which passes the highway of republican significance A-23, and other infrastructure facilities.
    • Favorable conditions for mining. The physical and geological properties of the ore from the Kundybay deposit make it possible to avoid drilling and blasting. Soft, dense or loose rocks are removed directly from the massif using an open method.

    Investment proposal

    For the implementation of the Project, financing in the amount of 1,439 thousand US dollars is required:

    • 70% (USD 1,007 thousand) – debt financing (subject to availability of collateral);
    • from 30% (432 thousand US dollars) – investor participation.

    The proposed financing structure and state support measures are indicative, the final financing structure and the stake in the Project will be determined based on the results of joint negotiations with the investor.[/vc_column_text][/vc_column][/vc_row]