Scrap Lifting Magnets Market By Product Type (Electromagnetic Lifting Magnets, Permanent Lifting Magnets); By Application (Steel Mills, Recycling Facilities, Ports & Logistics, Construction & Demolition); By End User (Industrial Manufacturers, Recycling Operators, Port & Logistics Operators, Construction Sites); By Geography, Segment Revenue Estimation, Forecast, 2026–2032

How Large Is the Scrap Lifting Magnets Market and How Are Scrap Throughput and EAF Steelmaking Shaping Demand? – (Updated On: 01-Sep-2026)

The Global Scrap Lifting Magnets Market was valued at USD 1.61 billion in 2025 and is projected to reach USD 2.57 billion by 2032, expanding at a CAGR of 6.9% during 2026–2032, according to Strategic Market Research.

 

Scrap lifting magnets are crane-, material-handler- or excavator-mounted systems used to pick, transfer, stockpile, load and charge ferrous scrap. Their core revenue pool is tied to steel-mill scrap bays, recycling yards, ferrous recovery operations, ports and demolition sites where loose, irregular metal must be moved repeatedly without manual rigging. The commercial value is therefore not simply lifting capacity: it is the combination of tonnes moved per cycle, equipment availability, heat tolerance, carrier compatibility and the ability to release material quickly and predictably.

 

Demand is being supported by the amount of recycled steel moving through global steelmaking and recycling systems. BIR estimates that roughly 630 million tonnes of recycled steel are used in global steel production each year. In Q1 2026, recycled-steel use rose 22.6% year on year in India to 11.40 million tonnes and 11.3% in the United States to 14.7 million tonnes, while China fell 12.1% to 50.64 million tonnes and the EU-27 declined 5.7% to 18.07 million tonnes. The split matters: it points to stronger utilization-led magnet demand in India and the United States, while China and Europe are more dependent on replacement, service and selective modernization until throughput improves.[1]

 

SMR Market Scope Keeps Scrap-Handling Revenue Separate from Adjacent Magnetic Equipment

Included in the SMR market scope	Excluded from the market scope
Scrap lifting magnet units; integrated power/control hardware supplied as part of the magnet system; electromagnetic, permanent and self-contained/mobile configurations used specifically for ferrous scrap, sorted offcuts or demolition recovery.	Magnetic separators and drums; workholding magnets; generic sheet, plate and coil lifters not used for scrap; cranes, excavators and material handlers themselves; stand-alone repair services unless explicitly included in the equipment sale.

 

2025 Market Positioning Shows Electromagnets and Steel-Mill Duty at the Core of Revenue

The quantitative segmentation below uses the 2025 SMR market baseline. Segment CAGRs are rounded estimates; minor reconciliation differences can arise from rounding and mix shifts across the forecast period.

Product Type

• Electromagnetic lifting magnets held 68.0% of the market, equal to USD 1.095 billion in 2025, and are projected to grow at 6.6%. Deep magnetic fields, rapid pick-and-release cycles and high-duty operation keep electromagnets central to loose mixed scrap handling.

• Permanent lifting magnets represented 32.0%, or USD 0.515 billion, and are projected to grow at 7.2%. Within this report, the category is restricted to permanent systems used for sorted ferrous scrap and defined offcuts; generic plate, sheet and coil lifters are excluded.

 

Application

• Steel mills led with 38.0%, or USD 0.612 billion, and a 6.4% CAGR because scrap receiving, charge preparation and furnace-feeding areas require high-cycle magnetic handling.

• Recycling facilities accounted for 31.0%, or USD 0.499 billion, and have the fastest application CAGR at 7.5% as higher intake increases magnet hours across sorting, shearing, shredding, stockpiling and outbound loading.

• Ports & logistics represented 17.0%, or USD 0.274 billion, and are projected to grow at 6.8% as internationally traded scrap is repeatedly transferred between vessels, railcars, trucks and storage yards.

• Construction & demolition held 14.0%, or USD 0.225 billion, and are forecast to grow at 6.3%, supported by excavator-mounted systems that recover rebar and structural steel without dedicating a carrier to one attachment.

 

Geography

• Asia Pacific led with 34.0%, or USD 0.547 billion, and the fastest regional CAGR of 7.8%, increasingly supported by India even as China’s near-term recycled-steel use softens.

• North America accounted for 28.0%, or USD 0.451 billion, and is forecast to grow at 6.4%, supported by scrap-intensive EAF steelmaking and a large recycling network.

• Europe held 24.0%, or USD 0.386 billion, and is growing at 6.1%; its installed recycling and logistics base supports replacement demand despite weaker Q1 2026 recycled-steel consumption.

• Latin America represented 8.0%, or USD 0.129 billion, and is projected to grow at 6.9%, mainly through gradual mechanization in recycling yards, processors and port terminals.

• Middle East & Africa held 6.0%, or USD 0.097 billion, and are forecast to grow at 7.2%. High electric-route steelmaking creates a structural handling opportunity, although DRI use means EAF share should be treated as a proxy rather than a direct measure of scrap consumption.

 

Higher Scrap Throughput Is Increasing Magnet Utilization Before It Creates Greenfield Demand

The immediate commercial driver is utilization, not only new steel capacity. A recycling yard can generate additional magnet demand when intake rises even if it does not add a new processing line, because receiving, sorting, shredder feeding, stockpile management and outbound loading all create extra lift cycles. Sims Limited reported that proprietary intake increased 4.9% to 6.4 million tonnes in FY2026. For magnet suppliers, this is important because rising throughput increases operating hours and makes downtime, coil condition, cables, controls and backup equipment more financially consequential.[2]

Large multi-site scrap networks also create recurring fleet-level demand. Nucor’s Raw Materials Group operates more than 70 full-service scrap recycling centers and 10 brokerage offices, with scrap serving as a primary input to its electric arc furnace steelmaking. The equipment opportunity is therefore distributed across many yards and material handlers rather than concentrated in a single large capital project. Suppliers with replacement inventory, repair capability and controller expertise can participate in this installed-base revenue even when customers postpone complete magnet replacement.[3]

This utilization-led model also explains why market growth can remain positive during a mixed steel cycle. New furnaces and recycling capacity create first-time magnet demand, but an existing yard can still raise equipment spending when tonnes handled per shift increase, attachments are moved onto additional carriers or older units become too costly to keep in service. The strongest revenue pools are therefore a combination of greenfield installations, replacement units, fleet expansion and system modernization.

 

Crane-Fed Electromagnets Remain the Workhorse While Mobile Hydraulic Systems Expand the Addressable Market

Electromagnetic lifting magnets generated 68.0% of 2025 revenue at USD 1.095 billion and are projected to grow at 6.6%. Their advantage in loose scrap comes from deep-field performance across irregular shapes, air gaps and changing pile density. Industrial Magnetics’ Walker LiftMaster scrap magnets are specified with a 75% duty cycle, deep-field construction and 230-VDC operation, while Ohio Magnetics lists fabricated scrap magnets from 48 to 93 inches with continuous-duty ratings and published lifting capabilities from 550 to 10,900 lb. These specifications illustrate why high-throughput yards continue to prioritize field depth, thermal design and lift-to-weight performance rather than nominal holding force alone.[4][5]

Permanent lifting magnets represented 32.0%, or USD 0.515 billion, and are projected to expand at 7.2% within SMR’s defined scope. Their role is narrower than that of bulk-scrap electromagnets because permanent systems perform best when the ferrous load is comparatively defined and contact conditions are predictable. For this reason, the segment should be interpreted as a niche category for sorted scrap, fabrication offcuts and similar controlled loads—not as a substitute for circular deep-field electromagnets in loose mixed scrap. This distinction prevents the market from being inflated by unrelated plate, sheet and coil lifting equipment.

Mobile hydraulic systems are widening the addressable market even though they sit within the broader magnet technology categories rather than forming a separate SMR revenue segment. Moley’s current fully enclosed hydraulic scrap magnets place the generator, pump and controls on the attachment and are offered in 32- to 60-inch sizes; the design allows an excavator to change implements without remaining dedicated to magnetic lifting. Winkle likewise markets hydraulic and self-contained scrap-magnet architectures alongside conventional electromagnetic systems. These configurations matter most in demolition, smaller recycling yards and project-based operations where carrier flexibility has more economic value than a fixed crane installation.[6][7]

 

Steel Mills Provide the Largest Installed Base While Recycling Yards Generate the Fastest Utilization Growth

Steel mills accounted for 38.0% of the market, equal to USD 0.612 billion in 2025, and are projected to grow at 6.4%. Magnets operate across scrap receiving, stockyards, charge preparation and furnace-feeding areas, so reliability directly affects raw-material flow. In June 2025, SGM Magnetics disclosed that POSCO placed an order for five pairs of EO2A 290/350 octagonal scrap magnets, each specified at 31.7 tonnes and 70 kW. The disclosure is useful because it demonstrates that large mills may procure application-engineered systems rather than catalogue units; it is treated here as an order announcement, not evidence of completed installation.[8]

Recycling facilities represented 31.0%, or USD 0.499 billion, and have the fastest application CAGR at 7.5%. Every additional tonne entering a yard can be lifted several times before shipment, including unloading, sorting, feeding to processing equipment, stockpiling and outbound loading. Sims’ FY2026 intake growth therefore has a direct operating implication for magnet utilization. The segment is also more receptive to self-contained hydraulic systems because material handlers and excavators often need to switch between magnets, grapples and other attachments.[2]

Ports & logistics accounted for 17.0%, or USD 0.274 billion, and are forecast to grow at 6.8%. BIR reported that Türkiye remained the world’s largest recycled-steel importer in Q1 2026 at 4.746 million tonnes, while the EU-27 exported 4.092 million tonnes and the United States exported 2.930 million tonnes. Internationally traded scrap can be lifted several times between collection, storage, vessel loading, unloading and inland transfer. Port demand therefore favors durable electromagnetic systems, railcar-friendly magnet geometry and service support that reduces interruptions to vessel or terminal productivity.[1]

Construction & demolition applications held 14.0%, or USD 0.225 billion, and are projected to grow at 6.3%. The demand mechanism is different from a steel mill: contractors need to separate rebar, structural sections and other ferrous material from mixed debris while keeping the excavator available for other tasks. Fully enclosed hydraulic magnets reduce the infrastructure needed to add magnetic recovery to a jobsite and can make attachment ownership economical for contractors that do not operate a dedicated scrap crane.[6]

 

Asia Pacific Growth Is Increasingly India-Led as China’s 2026 Scrap Consumption Softens

Asia Pacific held 34.0% of the market, or USD 0.547 billion in 2025, and has the highest regional CAGR at 7.8%. The region combines the world’s two largest steel producers with sharply different current scrap signals. worldsteel reports that China produced 960.8 million tonnes of crude steel in 2025, while India produced 164.9 million tonnes; India’s electric-route share was 57.7%. In Q1 2026, India’s recycled-steel use jumped 22.6% to 11.40 million tonnes, whereas China’s fell 12.1% to 50.64 million tonnes. The near-term magnet opportunity is therefore increasingly India-led rather than uniformly Asia-led.[1][9]

India’s structural demand is also strengthening. The Ministry of Steel reported that scrap consumption increased from 25.58 million tonnes in FY2019 to 33.36 million tonnes in FY2024, while electric arc furnace capacity rose from 40.51 million tonnes in FY2019-20 to 43.99 million tonnes in FY2025-26. This supports equipment demand across scrap processors and electric-route steelmakers, although the 46% year-on-year decline in India’s Q1 2026 scrap imports to 1.240 million tonnes shows that domestic availability and sourcing patterns can shift quickly.[10][1]

 

North American Scrap-Intensive Steelmaking Supports Replacement Demand While Europe Faces a Softer 2026 Throughput Environment

North America accounted for 28.0% of revenue, or USD 0.451 billion in 2025, and is forecast to grow at 6.4%. U.S. recycled-steel use increased 11.3% year on year to 14.7 million tonnes in Q1 2026, while crude steel production rose 5.7% to 20.98 million tonnes. Combined with large integrated scrap networks such as Nucor’s, the region supports recurring demand for circular electromagnets, hydraulic attachments, controllers and service parts. The installed-base opportunity is especially important because many replacement decisions are triggered by downtime economics rather than a new mill opening.[1][3]

Europe held 24.0%, or USD 0.386 billion, and is projected to expand at 6.1%. The region has a large recycling and export infrastructure, but the latest operating signal is softer: EU-27 recycled-steel consumption fell 5.7% to 18.07 million tonnes in Q1 2026, while exports declined 11.3% to 4.092 million tonnes. Eurostat had previously reported 19.0 million tonnes of metal recyclable-material exports from the EU in 2024. The practical implication is that European magnet revenue is likely to lean more heavily on replacement, reliability upgrades and port/recycling installed-base spending than on aggressive throughput-led fleet expansion in the near term.[1][11]

 

Latin America and Middle East & Africa Remain Smaller but Mechanization and Electric-Route Steelmaking Support Selective Growth

Latin America represented 8.0% of the market, or USD 0.129 billion in 2025, and is projected to grow at 6.9%. South America produced 41.5 million tonnes of crude steel in 2025, with 32.1% produced through electric routes. The current installed base is smaller than in North America or Europe, so growth is more dependent on gradual yard mechanization, port handling and replacement of older attachments. Because the electric-route share is moderate, the region should not be treated as a uniformly scrap-intensive steel market.[9]

Middle East & Africa held 6.0%, or USD 0.097 billion, and are forecast to grow at 7.2%. worldsteel reports electric-route shares of 95.5% for the Middle East and 89.0% for Africa. Those percentages indicate a high potential requirement for metallic-feed handling, but they are not direct scrap-consumption measures because DRI is an important EAF feedstock across parts of the region. The equipment opportunity is therefore strongest where organized ferrous recycling, import handling or scrap-intensive mill operations expand—not simply wherever EAF capacity is added.[9]

 

Duty Cycle, Field Depth, Heat Management and Controls Are Becoming the Main Competitive Differentiators

Competition is fragmented across heavy-duty scrap-magnet specialists, broader industrial magnet manufacturers and attachment suppliers serving mobile equipment. The strongest differentiation is operational: tonnes lifted per cycle, magnet weight, field depth, heat dissipation, duty cycle, ability to match crane or excavator capacity, control-system reliability and the speed at which parts or service can be supplied.

Industrial Magnetics / Walker Magnetics competes through ScrapMaster and LiftMaster scrap systems, including deep-field 230-VDC designs with published 75% duty cycles. The portfolio is directly aligned with recycling, demolition and manufacturing-scrap handling rather than relying on adjacent plate-lifting products.[4]

Ohio Magnetics emphasizes severe-duty fabricated and cast scrap magnets, with published 48- to 93-inch sizes, continuous-duty options, deep-field designs and matching to excavator mechanical and hydraulic capacity. Its ability to supply lifting magnets together with controls and related system support is commercially important for mills and recycling operations seeking fewer integration points.[5]

Winkle Industries positions its DS and OptiMag scrap ranges around 75% continuous duty cycles, deep or extra-deep field coils, abrasion-resistant construction and compatibility with mobile or overhead cranes. The company also offers self-contained power architectures, illustrating how magnet suppliers are extending beyond the magnet body into power and control integration.[7]

SGM Magnetics differentiates through engineered circular electromagnets and its octagonal Mega Scrap Magnet. The Mega design uses a double magnetic circuit and is positioned for more homogeneous scrap distribution in applications such as Consteel belt loading. The POSCO order provides a current example of this engineered, high-capacity positioning.[12][8]

Moley Magnetics focuses on mobile recycling and demolition applications, where integrated hydraulic systems allow faster attachment changes and reduce the need for a dedicated magnet carrier. This gives the company a different competitive position from suppliers centered on fixed crane or steel-mill duty.[6]

 

Safety Qualification and Service Capability Raise the Cost of Competing Beyond the Magnet Body

Safety requirements influence controls, testing, inspection and purchasing because loss of magnet power can release a suspended load. In the United States, OSHA 29 CFR 1910.179 requires cranes using lifting magnets to have an enclosed magnet-circuit switch that can be locked open and a means of discharging the magnet’s inductive load. ASME B30.20-2025 covers marking, construction, installation, inspection, testing, maintenance and operation of below-the-hook lifting devices, while ASME BTH-1 provides related design criteria. In Europe, BS EN 13155:2020+A1:2025 explicitly covers electric, permanent and electro-permanent lifting magnets. These requirements favor suppliers that can provide rated-load documentation, control-system integration, inspection guidance, traceability and after-sales support rather than only a magnet body.[13][14][15]

 

Repair Economics and Steel Cyclicality Could Slow New-Unit Replacement Through 2032

The main forecast constraint is that lifting magnets are repairable capital equipment. Steel mills and recyclers can often replace cables, controllers or coils, rebuild a magnet or move an existing unit between carriers instead of purchasing a complete new system. When scrap margins weaken or steel output falls, capital spending can therefore be deferred even if operating hours remain high. The Q1 2026 declines in Chinese and EU recycled-steel use demonstrate this cyclicality and argue against treating global steel decarbonization as a straight-line equipment demand curve.

For suppliers, this makes the aftermarket strategically important. Repair capability, replacement inventory, controller upgrades, power-supply integration and application engineering can protect revenue during slower new-unit cycles. The path from USD 1.61 billion in 2025 to USD 2.57 billion by 2032 therefore depends on four mechanisms working together: rising scrap throughput, new or expanded electric-route steelmaking, penetration of mobile hydraulic attachments, and customers deciding that replacement or modernization is more economical than extending the life of older equipment.

 

Methodology and Evidence Framework

Strategic Market Research defines this market around equipment whose primary commercial function is lifting and transferring ferrous scrap. The 2025 market value, segment shares and 2026–2032 growth rates are SMR estimates. Public evidence is used to validate demand mechanisms, regional operating conditions, product capabilities, customer activity and regulatory requirements; it is not used to present third-party market-research estimates as SMR values. Supplier specifications and order announcements are identified as supplier disclosures, while BIR, worldsteel, Eurostat, government and standards-body data are treated as external industry or regulatory evidence. EAF production shares are used only as directional indicators where direct scrap-consumption data are unavailable, because DRI and other metallic inputs can materially affect EAF feed mixes.

 

Scrap Lifting Magnets Market Report Coverage Table

Report Attribute	Details
Forecast Period	2026 – 2032
Market Size Value in 2025	USD 1.61 Billion
Revenue Forecast in 2032	USD 2.57 Billion
Overall Growth Rate	CAGR of 6.9% (2026 – 2032)
Base Year for Estimation	2025
Historical Data	2019 – 2024
Unit	USD Million, CAGR (2026 – 2032)
Segmentation	By Product Type, By Application, By Geography
By Product Type	Electromagnetic Lifting Magnets, Permanent Lifting Magnets
By Application	Steel Mills, Recycling Facilities, Ports & Logistics, Construction & Demolition
By Region	North America, Europe, Asia Pacific, Latin America, Middle East & Africa
Country Scope	U.S., Canada, UK, Germany, France, Italy, Spain, Australia, Japan, South Korea, India, China, Brazil, Mexico, Saudi Arabia, UAE, South Africa
Market Drivers	Rising recycled-steel throughput, expansion of electric-route steelmaking, higher magnet utilization across recycling yards, recurring steel-mill replacement demand, internationally traded scrap handling, mobile hydraulic attachment adoption, and modernization of power and control systems
Customization Option	Available upon request