Dysprosium Market

• In June 2024, Australia-listed mining company Lynas Rare Earths announced it would start producing two separated heavy rare earth (HRE) products at its Malaysian facility by 2025. Lynas would start production of separated dysprosium and terbium. The facility would be designed to separate up to 1,500 t/yr of a mixed heavy rare earth compound containing mixed samarium, europium, gadolinium, holmium, dysprosium, and terbium (SEGH).

• In February 2024, PNNL (Pacific Northwest National Laboratory) researchers achieved sustainable recovery of minerals from e-waste. It was first reported by the University of Washington. The experiment involved the successful separation of two essential rare earth elements, neodymium and dysprosium, from a mixed liquid. The two separate and purified solids formed in the reaction chamber in 4 hours versus the 30 hours needed for conventional separation methods. These two critical minerals manufacture permanent magnets found in computer hard drives and wind turbines, among other uses.

In this report, The Dysprosium Market has been segmented by Type, Form, Product, Application and Geography.

Dysprosium Market, Segmentation by Type

The Dysprosium Market has been segmented by Type into Metal, Oxide, Acetate, Chloride and Others.

Metal

The dysprosium metal segment dominates with nearly 40% share, largely due to its use in high-performance magnets for electric vehicles, renewable energy systems, and electronics manufacturing. Its demand continues to grow with sustainable technologies.

Oxide

Dysprosium oxide holds about 30% of the market. It is extensively applied in nuclear control rods, ceramic applications, and industrial processes, making it vital for both the energy and materials sectors.

Acetate

The acetate type accounts for approximately 12%. It is mainly used in specialty chemicals and laboratory research, offering steady contributions to niche applications.

Chloride

Dysprosium chloride represents nearly 10% of the market. It is essential in catalyst formulations, optical materials, and advanced synthesis methods, highlighting its importance in industrial chemicals.

Others

The otherbs category makes up close to 8%. This includes alloys and advanced dysprosium compounds used in laser systems, specialized coatings, and emerging high-tech applications.

Dysprosium Market, Segmentation by Form

The Dysprosium Market has been segmented by Form into Powder, Pellet, Ingot, Sheet and Wire

Powder

The powder form of dysprosium holds nearly 35% of the market. It is widely applied in magnets, ceramics, and specialty alloys, making it essential for high-tech industries.

Pellet

Dysprosium pellets account for about 20% of the market. They are commonly used in nuclear reactors, advanced metallurgy, and research applications where precision is critical.

Ingot

The ingot form represents nearly 25% of demand. It plays a major role in aerospace manufacturing, defense systems, and magnet production, supporting bulk industrial processes.

Sheet

Dysprosium sheets contribute close to 10% of the market. They are vital in optical technologies, laser applications, and specialized coatings requiring thin layers.

Wire

The wire segment accounts for around 10%. It is widely used in electronics, sensors, and conductive applications where fine precision materials are essential.

Dysprosium Market, Segmentation by Product

The Dysprosium Market has been segmented by Product into Magnets, Batteries, Catalysts, Glass Additives and Lighting

Magnets

Dysprosium magnets hold nearly 45% of the market. They are essential in permanent magnet technologies for electric vehicles, wind turbines, and robotics, supporting growth in the clean energy sector.

Batteries

The batteries segment accounts for about 20%. Dysprosium is used in NiMH batteries and emerging energy storage technologies, fueling demand in hybrid and electric vehicles.

Catalysts

Catalysts make up roughly 15% of demand. They are applied in petrochemicals, polymerization, and environmental processes, where dysprosium improves efficiency and reduces emissions.

Glass Additives

Glass additives contribute close to 10%. Dysprosium enhances optical properties, durability, and heat resistance, making it vital for lasers, optics, and industrial glass applications.

Lighting

The lighting segment represents around 10%. It is widely used in metal halide lamps and energy-efficient lighting, ensuring brightness and color stability.

Dysprosium Market, Segmentation by Application

The Dysprosium Market has been segmented by Application into Permanent Magnet, Laser Material, Commercial Lightning, Nuclear Reactor and Others.

Permanent Magnet

The permanent magnet segment dominates with nearly 50% share. It is essential in electric vehicles, wind turbines, and industrial automation, driving demand for sustainable energy solutions.

Laser Material

About 15% of demand comes from laser materials. Dysprosium is widely used in infrared lasers, medical devices, and defense applications due to its efficiency and stability.

Commercial Lighting

The commercial lighting segment holds nearly 12%. It supports metal halide lamps and HID systems, ensuring brightness, color accuracy, and reliable illumination.

Nuclear Reactor

Approximately 10% of demand arises from nuclear reactors. Dysprosium’s neutron absorption ability makes it vital for control rods and safety systems in nuclear energy.

Others

The others category contributes about 13%. It includes alloys, catalysts, and advanced materials, highlighting dysprosium’s diverse applications across industries.

Dysprosium Market, Segmentation by Geography

In this report, The Dysprosium Market has been segmented by Geography into five regions; North America, Europe, Asia Pacific, Middle East & Africa and Latin America.

Dysprosium Market Share (%), by Geographical Region

North America

North America captures nearly 28% of the dysprosium market. Demand is fueled by electric vehicles, renewable energy, and defense applications, supported by the region’s advanced technology ecosystem.

Europe

Europe accounts for about 22% of global demand. Growth is driven by aerospace, green energy, and automotive industries, with EU policies encouraging clean technologies.

Asia Pacific

Asia Pacific dominates with nearly 38% share. Countries like China, Japan, and South Korea lead in electronics, EV production, and wind energy projects.

Middle East & Africa

The Middle East & Africa contribute around 6%. Rising demand is linked to nuclear power, oil refining catalysts, and ongoing infrastructure development.

Latin America

Latin America holds nearly 6% share. Expansion in automotive manufacturing, renewable energy projects, and industrial applications is strengthening its market role.

This report provides an in depth analysis of various factors that impact the dynamics of Global Dysprosium Market. These factors include; Market Drivers, Restraints and Opportunities Analysis.

Drivers, Restraints and Opportunity Analysis

Drivers :

• Strong Magnetic Properties

• Diverse Applications - The global dysprosium market is set to grow substantially due to its diverse applications across multiple industries. In the automotive sector, dysprosium is essential for manufacturing high-performance permanent magnets used in electric vehicles, enhancing their efficiency and range. In electronics, its role in permanent magnets contributes to the performance of smartphones, televisions, and loudspeakers, which are increasingly relying on advanced magnetic materials.

  The expanding use of dysprosium in clean energy technologies, such as wind turbines, underscores its importance in supporting sustainable energy solutions. Additionally, its applications in laser materials and nuclear reactors highlight its versatility in high-tech and energy-intensive sectors. As trends in electric mobility, energy efficiency, and automation evolve, dysprosium’s diverse applications are expected to drive significant market growth, supported by ongoing advancements in manufacturing technologies.

Restraints :

• Limited Availability

• Supply Chain Concentration - The dysprosium supply chain is notably concentrated, with key stages involving mining, refining, and processing primarily dominated by a few major players. Dysprosium is classified as a rare earth element, and its supply is subject to a complex and concentrated supply chain, largely influenced by a handful of countries with significant mining and processing capabilities.

  China is the leading global supplier of dysprosium, accounting for the majority of the world's production and reserves. This concentration poses potential risks to the stability of the supply chain, including geopolitical tensions, trade restrictions, and environmental regulations impacting mining practices. As a result, the industry is exploring alternatives such as developing new mining sources, enhancing recycling efforts, and investing in technologies to reduce dependency on concentrated supply chains.

  These factors highlight the need for strategic diversification and increased transparency in the dysprosium supply chain to mitigate risks and ensure a stable supply for industries reliant on this critical material.

Opportunities :

• Technological Advancements

• Exploration of New Resources - Exploration of new resources is a critical focus in the dysprosium market, driven by the need to mitigate the risks associated with supply chain concentration and ensure a stable supply of this essential material. Efforts are underway to identify and develop alternative sources of dysprosium outside of the dominant suppliers, particularly China. This exploration includes investigating untapped mineral deposits and advancing extraction technologies to make previously uneconomical sources viable.

  In addition to traditional mining, there is increasing interest in recycling and reusing dysprosium from end-of-life products, such as electronics and magnets, to reduce reliance on primary sources. Research is also being directed towards improving the efficiency of dysprosium extraction and processing, as well as developing synthetic alternatives that could supplement natural resources. These initiatives aim to enhance supply security and support the growing demand driven by advancements in technology and renewable energy applications.

Key players in Global Dysprosium Market include

• Greenland Minerals
• Lynas
• Molycorp
• Arafura
• Tasman Metals
• Avalon Advanced Materials
• Quest Rare Minerals
• Metall Rare Earth Limited
• Canada Rare Earth Corporation
• HEFA Rare Earth Canada

In this report, the profile of each market player provides following information:

• Company Overview and Product Portfolio
• Key Developments
• Financial Overview
• Strategies
• Company SWOT Analysis