Neodymium rose to 742,500 CNY/T on December 1, 2025, up 5.32% from the previous day. Over the past month, Neodymium's price has risen 9.19%, and is up 43.90% compared to the same time last year, according to trading on a contract for difference (CFD) that tracks the benchmark market for this commodity. Neodymium Rare Earth - values, historical data, forecasts and news - updated on December of 2025.

The price of the rare earth oxide neodymium oxide was 49,763 U.S. dollars per metric ton in 2020. By 2030, the price of neodymium oxide is expected to increase to 45,500 U.S. dollars per metric ton.

Scandium oxide had the highest average domestic price in China of any rare earth oxide as of March, 2024, at 6,200 yuan per kilogram. On the other side of the scale, Lanthanum oxide had the lowest average price of any rare earth in China at that time, with an average domestic price of 4,000 yuan per metric ton.

In 2022, the market price of rare earth element dysprosium averaged 390 U.S. dollars per kilogram. Neodymium, another rare earth material, averaged *** U.S. dollars per kilogram that year. Base metals such as nickel, zinc, and aluminum had a much lower price, ranging from ***** to ** U.S. dollars per kilogram. Critical materials are resources used in technology which are considered to be subjected to supply risks.

Organic acid-based bioleaching has attracted significant research interest for the recovery of rare earth elements (REEs) and other critical metals. Utilizing biologically produced leaching agents, known as biolixiviants, derived from waste materials holds great promise for enhancing the economic viability and environmental sustainability of bioleaching processes. This study focuses on the modeling and optimization of biolixiviant production using corn stover (CS), date palm clippings (DP), and nonrecyclable paper (NP). Techno-economic analysis revealed that gluconic acid production from NP is more cost-effective than that from CS and DP, with respective costs of $0.04/kg, $0.06–0.08/kg, and $0.06–0.09/kg of the biolixiviant, yielding gluconic acid concentrations of 135.39, 172.90, and 176.87 mM, respectively. Life cycle assessment demonstrated that biolixiviant production from NP exerts the lowest environmental impact compared with the other evaluated substrates. When applied to the bioleaching of a neodymium–iron–boron magnet swarf, the biolixiviant derived from NP exhibits the highest leaching efficiencies, confirming its cost and environmental competitiveness in comparison to CS and DP.