The State of the Magnetics Industry: Supply Security Takes Center Stage in 2026

August 2026 Industry Update

The global magnetics industry entered 2026 with stronger demand, expanding investment and an unprecedented level of government attention. At the same time, manufacturers and procurement teams continue to face export licensing requirements, geopolitical uncertainty, fluctuating raw-material prices and limited alternatives to China for many high-performance magnetic materials.

The result is an industry that is growing—but also becoming more complicated.

For magnet buyers, price and magnetic performance are no longer the only considerations. Country of origin, raw-material traceability, export eligibility, inventory availability and supplier resilience are becoming equally important parts of the purchasing decision.

Magnet Demand Continues to Expand

Demand for permanent magnets remains supported by several long-term growth markets, including:

• Electric and hybrid vehicles
• Industrial automation and robotics
• Aerospace and defense systems
• Artificial intelligence infrastructure and data centers
• Medical equipment
• Consumer electronics
• Wind-energy systems
• High-efficiency motors and generators

The International Energy Agency reports that demand for the primary magnet rare earth elements—neodymium, praseodymium, dysprosium and terbium—has doubled since 2015. Under current policy conditions, demand is expected to increase by another one-third by 2030. Permanent magnets now represent approximately 95% of total rare-earth consumption by value.

Although electric vehicles and wind turbines remain important demand drivers, the market is becoming broader. Robotics, automation and digital infrastructure increasingly require compact, efficient motors and precision motion-control systems. These applications often depend on high-performance neodymium magnets because they provide substantial magnetic output within a relatively small package.

Demand, therefore, is not tied to one industry. Even when growth slows in one end market, requirements from defense, electronics, industrial automation or data infrastructure may continue supporting the overall magnet market.

China Remains the Center of the Rare-Earth Magnet Supply Chain

The most important structural issue facing the magnetics industry is the continued concentration of rare-earth processing and magnet manufacturing in China.

China accounted for approximately 60% of mined magnet rare earths in 2024, 91% of refined output and 94% of global sintered permanent-magnet production. This concentration extends beyond mining. China has developed an integrated ecosystem covering separation, metal production, alloying, powder preparation, magnet pressing, sintering, machining and coating.

This distinction is critical. Opening a new rare-earth mine does not automatically create an independent magnet supply chain. The material must still be separated into individual oxides, converted into metal, alloyed, processed into magnetic powder and manufactured into a finished magnet.

Many diversification projects remain concentrated at the mining stage, while refining, metallization and finished-magnet capacity continue to lag. According to the IEA, announced non-Chinese magnet production projects currently represent only about one-third of the corresponding planned mining capacity.

The industry is gradually diversifying, but China is expected to remain the dominant magnet producer for the foreseeable future.

Export Controls Have Changed the Market

China’s April 2025 export controls on selected medium and heavy rare earth elements changed the operating environment for magnet manufacturers worldwide. The controls covered materials including dysprosium and terbium, which are commonly used to improve coercivity and temperature resistance in high-performance neodymium magnets.

Exports did not stop completely, but controlled products became subject to licensing, documentation and end-use review. The initial disruption forced some automotive manufacturers to reduce production or temporarily suspend operations while waiting for material and magnet shipments.

Overall magnet exports have since recovered substantially. China exported approximately 5,649 metric tons of rare-earth magnets in June 2026, compared with 4,730 metric tons in May. However, availability has not recovered uniformly across every material, destination or application.

During that same month, China exported no dysprosium, terbium, gallium or yttrium to Japan. No yttrium was shipped to the United States for the second consecutive month. Japan operates the largest rare-earth magnet industry outside China, demonstrating that even developed magnet-manufacturing countries remain dependent on Chinese raw materials for certain applications.

Recent discussions between the United States and China have continued to include rare-earth commitments and export restrictions. In July 2026, U.S. officials publicly stated that China was only partly meeting previous commitments involving rare-earth supplies.

For buyers, the lesson is straightforward: higher export volumes do not necessarily mean that all supply risks have disappeared.

High-Temperature Neodymium Grades Require Additional Planning

Standard neodymium grades may experience different supply conditions from high-temperature grades that rely more heavily on dysprosium or terbium.

Grades such as N35SH, N42SH, N35UH and other high-coercivity materials are frequently selected for motors, aerospace assemblies, sensors and applications where magnets must resist demagnetization at elevated temperatures. Depending on the alloy design and manufacturing process, producing these grades may require controlled heavy rare-earth inputs.

This does not mean high-temperature grades are unavailable. It means that sourcing them may involve:

• More detailed end-use documentation
• Longer export-license processing
• Less predictable shipment timing
• Larger minimum production quantities
• Higher premiums for non-Chinese material
• Additional scrutiny for defense-related applications

Procurement teams should identify temperature and coercivity requirements early in the design process. Specifying a higher grade than the application actually requires can unnecessarily increase cost and supply-chain exposure. Conversely, reducing the grade without proper engineering analysis can create a risk of irreversible demagnetization.

The correct objective is not simply to select the strongest magnet. It is to select the appropriate material, grade, coating and geometry for the operating environment.

North American Magnet Production Is Making Progress

Efforts to establish a domestic American rare-earth supply chain are beginning to produce measurable results.

MP Materials has started producing neodymium-iron-boron magnets using commercial equipment at its Independence facility in Texas. During the first quarter of 2026, the company reported a significant increase in sales of separated neodymium-praseodymium products and continued growth in its magnetics business.

The company is also planning additional magnet capacity intended to bring its total projected U.S. manufacturing capability to approximately 10,000 metric tons annually once future facilities are commissioned.

Other projects are addressing different parts of the supply chain, including recycling, separation, metallization and heavy-rare-earth processing. In June 2026, the U.S. Department of Defense announced support for Energy Fuels to expand rare-earth separation and metallization capabilities—an important intermediate step between mining and finished-magnet manufacturing.

These developments are meaningful, but the United States is not yet able to replace Chinese production at the scale, variety and cost currently required by the commercial market. New magnet plants must also qualify their processes, achieve consistent production yields and obtain customer approval before they can support high-volume applications.

Domestic capacity should therefore be viewed as an expanding strategic option rather than an immediate replacement for the existing global supply chain.

Ferrite Magnets Are Receiving Renewed Attention

The uncertainty surrounding rare-earth materials has increased interest in ceramic ferrite magnets.

Ferrite magnets do not provide the same magnetic energy density as neodymium magnets, but they offer several important advantages:

• Lower raw-material cost
• Strong corrosion resistance
• Good performance at elevated temperatures
• Wide commercial availability
• Reduced exposure to rare-earth export restrictions

For applications with sufficient space, engineers may be able to use a larger ferrite magnet instead of a smaller neodymium magnet. Ferrite can be particularly attractive for speakers, sensors, magnetic separation equipment, holding applications and certain motor designs.

However, substitution is not always practical. Replacing neodymium with ferrite can require a larger magnet, more steel, a redesigned magnetic circuit or changes to the surrounding assembly. The total system cost—not merely the price per magnet—must be evaluated.

Samarium-cobalt and alnico magnets also continue to serve specialized applications. Samarium cobalt provides excellent temperature stability and corrosion resistance, while alnico remains useful where high-temperature performance and stable magnetic output are required. Each material has different cost, mechanical and supply-chain considerations.

Pricing Is Becoming More Segmented

Magnet pricing in 2026 cannot be summarized by a single upward or downward trend.

The IEA reported that critical-mineral prices rebounded during 2025 and early 2026 as supply conditions tightened and export restrictions expanded. At the same time, investment in critical-mineral projects declined by approximately 9% in 2025, illustrating the difficulty of financing new capacity in a volatile market.

Pricing can vary significantly based on:

• Magnet material and grade
• Dysprosium or terbium content
• Order volume
• Geometry and machining complexity
• Coating requirements
• Magnetization direction
• Inspection and documentation requirements
• Export-license status
• Country of origin
• Production and delivery schedule

A common catalog-size N35 neodymium disk may experience very different market conditions from a custom N48H diametrically magnetized ring or a samarium-cobalt assembly intended for aerospace use.

This segmentation makes early supplier communication increasingly important. Buyers should avoid assuming that a previously purchased price automatically applies to a new grade, coating, tolerance or end-use requirement.

What Procurement Teams Should Do

The magnet market does not currently require panic buying, but it does reward planning.

Companies using permanent magnets should consider several practical steps:

Review Critical Magnet Applications

Identify components that could stop production if the specified magnet becomes unavailable. Pay particular attention to custom shapes, high-temperature neodymium grades, samarium-cobalt magnets and parts requiring specialized magnetization.

Maintain Appropriate Safety Stock

Inventory requirements should be based on actual replacement lead time rather than historical delivery performance alone. Export-license processing and ocean transportation can add uncertainty even when factory production remains on schedule.

Qualify More Than One Supply Path

A second supplier is most useful when it represents a genuinely different manufacturing or raw-material pathway. Two distributors sourcing from the same factory or material producer may not provide true diversification.

Avoid Unnecessary Over-Specification

Review whether the application truly requires the highest grade, tightest tolerance or most complex coating. Engineering optimization can reduce both cost and exposure to controlled materials.

Strengthen Documentation

Customers increasingly request material declarations, country-of-origin certificates, conflict-minerals reporting, REACH and RoHS declarations, PFAS statements, PPAP documentation and supply-chain traceability. Maintaining these records before they are requested can prevent shipment and approval delays.

Communicate Forecasts Earlier

Manufacturers are better able to reserve materials, schedule production and address licensing issues when they receive realistic forecasts. Even a nonbinding forecast can provide useful visibility for custom or strategically important components.

Outlook for the Remainder of 2026

The magnetics industry is likely to remain active but uneven through the remainder of 2026.

Demand from automation, defense, electronics, AI infrastructure and high-efficiency motors should continue supporting the market. Meanwhile, China’s export controls, international trade negotiations and selective heavy-rare-earth availability will remain important sources of uncertainty.

New capacity in the United States, Europe, Australia and other allied markets will continue moving forward. However, diversified projects face technical, financial and qualification challenges, particularly in refining and finished-magnet production. The IEA estimates that approximately $60 billion of investment will be required over the next decade to create a meaningfully diversified magnet rare-earth supply chain.

The market is therefore transitioning rather than fully transforming. China remains dominant, but customers are increasingly willing to pay for inventory, traceability, alternative sourcing and supply assurance.

Final Thoughts

The magnetics industry in 2026 is defined by two simultaneous realities.

First, magnets are becoming more important as electrification, robotics, automation, defense systems and advanced computing expand. Second, the supply chains supporting those magnets remain among the most concentrated and strategically sensitive in global manufacturing.

Successful buyers will treat magnets as engineered, supply-critical components—not interchangeable commodities.

At Radial Magnets, we continue to help customers evaluate materials, select appropriate grades, plan inventory and navigate the technical and documentation requirements associated with permanent magnets. In today’s market, reliable supply begins with accurate specifications, realistic forecasting and a clear understanding of the complete magnet supply chain.