Steel Scrap Market Size, Share, Growth and Forecast (2026 - 2036)

Steel Scrap Market Forecast and Outlook By Fact.Mr

In 2025, the Steel Scrap Market was valued at USD 92.4 billion. In 2026, the global market is estimated to reach USD 97.1 billion and is projected to expand further to USD 159.7 billion by 2036, exhibiting a CAGR of 5.1% during the forecast period. The absolute dollar growth over the period is expected to be approximately USD 62.6 billion.

Summary of Steel Scrap Market

• Market Snapshot
  • Global steel scrap market revenue stood at USD 92.4 billion in 2025 and is forecast to reach USD 159.7 billion by 2036.
  • At a 5.1% CAGR from 2026 to 2036, this market is set to expand 1.7x in value, adding USD 62.6 billion in absolute opportunity.
  • Market growth is driven by increasing demand for sustainable steel production and circular economy practices, where scrap recycling significantly reduces carbon emissions compared to primary steelmaking.
  • Rising adoption of electric arc furnace (EAF) technology, stricter environmental regulations, and increasing focus on resource efficiency are accelerating the use of recycled steel across construction, automotive, and heavy industries.
• Demand and Growth Drivers
  • Increasing global emphasis on decarbonization of the steel industry is driving demand for scrap-based steel production.
  • Rising infrastructure development and urbanization are generating substantial volumes of industrial and obsolete scrap, supporting supply availability.
  • Growing adoption of electric arc furnaces (EAF) over blast furnaces is boosting scrap consumption due to lower energy requirements and reduced emissions.
  • Expansion of automotive recycling and end-of-life vehicle processing is strengthening scrap collection ecosystems.
  • Increasing volatility in iron ore prices is encouraging steel manufacturers to rely more on cost-efficient scrap-based inputs.
• Product and Segment View
  • Industrial scrap and obsolete scrap form the primary source segments, supported by manufacturing waste generation and end-of-life product recycling.
  • Carbon steel scrap dominates material type, driven by its widespread use in construction and industrial applications.
  • Alloy and stainless steel scrap segments are gaining traction due to demand from specialized applications in automotive and machinery industries.
  • Heavy Melting Scrap (HMS) holds a significant share by form, widely used in bulk steelmaking processes.
  • Shredded scrap and bundled scrap are increasingly adopted due to improved handling efficiency and furnace performance.
  • Electric Arc Furnace (EAF) accounts for a dominant recycling method, supported by lower carbon emissions and flexibility in raw material usage.
  • Basic Oxygen Furnace (BOF) continues to utilize scrap as a supplementary input in integrated steel production.
• Geography and Competitive Outlook
  • Asia Pacific dominates the market due to large-scale steel production and high scrap consumption in countries like China and India.
  • North America and Europe are mature markets driven by established recycling infrastructure and environmental regulations.
  • Emerging economies are witnessing increased adoption of scrap-based steelmaking due to cost advantages and sustainability goals.
  • Market growth is influenced by advancements in scrap sorting technologies, digital trading platforms, and recycling efficiency improvements.
  • Key companies active in this market include Nucor Corporation, Commercial Metals Company, Sims Limited, ArcelorMittal, and European Metal Recycling.

Steel Scrap Market - At a Glance

Growth in the market is primarily driven by the global acceleration of steel recycling mandates, rising demand for electric arc furnace (EAF) steelmaking as decarbonisation pressures reshape the industry, and the continued expansion of construction and automotive manufacturing across high-growth emerging economies. Additionally, growing scarcity of virgin iron ore resources, tightening environmental regulations on primary steel production, and the structural shift toward circular economy models in the metals industry are expected to further support market expansion over the forecast period.
Among the major countries, India leads growth with a CAGR of 6.9%, supported by rapid infrastructure development, expanding steel production capacity, and increasing adoption of scrap-based electric arc furnace (EAF) steelmaking. China follows at 4.9%, driven by its large-scale steel industry, regulatory push toward recycling, and gradual transition from primary steel production to scrap utilization.
Japan records a CAGR of 4.3%, backed by advanced recycling systems, high-quality scrap processing capabilities, and stable demand from mature industrial sectors. At the same time, Germany (4.0%) continues to benefit from a strong circular economy framework, well-established recycling infrastructure, and consistent demand for sustainable steel production.

In contrast, mature markets such as the United States (3.8%) experience comparatively slower growth, primarily driven by an already well-developed scrap ecosystem, stable EAF-based production, and incremental efficiency improvements, with overall expansion moderated by market maturity.

Where Is the Real Growth Coming From?

EAF Expansion, Carbon Policy, and Emerging Economy Urbanisation Driving Structural Demand Growth

The Fact.MR analysis indicates that growth within the steel scrap market is not being driven purely by construction volume - it is being shaped by a fundamental restructuring of how steel is made globally. The transition from blast furnace/basic oxygen furnace (BF/BOF) primary steelmaking to electric arc furnace (EAF) secondary production is the single most consequential structural shift in the industry, and it is unambiguously positive for scrap demand. Every tonne of EAF capacity added requires 70–100% scrap feedstock, compared to just 20–30% for BOF routes. As the industry builds EAF capacity at an accelerating rate to meet decarbonisation commitments, scrap sits at the centre of the solution.

The urbanisation dynamic in South Asia, Southeast Asia and the Middle East is layering additional demand growth on top of this structural production shift. Countries building out housing, transport, energy and industrial infrastructure at scale are simultaneously creating new steel demand and generating the industrial scrap that feeds future recycling cycles - creating a compounding, self-reinforcing demand loop that is expected to sustain well above-average growth in these geographies through the forecast period.

According to Fact.MR, the premium scrap categories - high-quality shredded scrap, low-residual HMS grades, and sorted alloy and stainless grades - are growing faster in value terms than the overall market as EAF producers compete for clean, low-residual feedstock that enables them to produce high-strength and advanced steel grades. This premiumisation of scrap quality is creating meaningful margin opportunities for processors that invest in sorting, shredding, and quality certification capabilities.

Which Source Segment Dominates the Steel Scrap Market?

Obsolete Scrap Leading Due to High Availability and Large-Scale Steel Recovery

Obsolete scrap represents the largest segment within the steel scrap market, accounting for 69.2% value share in 2026, driven by its extensive availability from end-of-life products such as automobiles, buildings, infrastructure, and industrial equipment. Its dominance is supported by the large volume of scrap generated through demolition activities and asset replacement cycles across both developed and emerging economies.

Obsolete scrap serves as a critical raw material for steel producers, particularly in electric arc furnace (EAF) operations, where bulk scrap input is required for efficient large-scale production. The segment benefits from well-established collection networks and global trade flows, ensuring steady supply across regions.

However, obsolete scrap often requires processing and sorting due to contamination and mixed material composition. Despite this, its volume advantage continues to outweigh processing challenges, making it the backbone of the global scrap supply chain.

With ongoing infrastructure replacement, urban redevelopment, and increasing recycling mandates, obsolete scrap is expected to maintain its leadership position, particularly in high-volume steel-producing regions.

Which Material Type is Gaining the Highest Adoption in the Steel Scrap Market?

Stainless Steel Scrap Leading Growth Due to High Value and Demand for Corrosion-Resistant Applications

Stainless steel scrap is gaining the highest adoption within the steel scrap market, holding a 10.2% value share in 2026, supported by its superior material value and increasing demand in high-performance applications. Unlike carbon steel, stainless scrap contains valuable alloying elements such as nickel and chromium, making it highly attractive for recycling and reuse.

The growing demand for corrosion-resistant and high-durability steel in industries such as construction, automotive, energy, and consumer goods is accelerating the adoption of stainless steel scrap. Additionally, its recyclability without quality degradation enhances its appeal in circular economy initiatives and sustainable manufacturing practices.

Steel producers are increasingly prioritizing stainless scrap due to its ability to reduce dependence on primary raw materials and lower production costs while maintaining high-quality output. This segment also benefits from higher price realization compared to other scrap types, making it commercially attractive.

With rising focus on premium steel grades, sustainability targets, and resource efficiency, stainless steel scrap is expected to witness the fastest growth, gradually increasing its share in the global steel scrap market.

Cross-Sectional Analysis - Steel Scrap Market

The cross-sectional analysis of the global Steel Scrap Market by Fact.MR incorporates demand-side, supply-side, and trade dynamics to provide an integrated perspective on how the market functions and where structural interdependencies are shaping competitive positioning. On the demand side, construction, automotive manufacturing, and infrastructure together account for approximately 70–75% of global steel consumption - and by extension, of ultimate scrap demand - with construction alone representing nearly 50% of end-use steel consumption globally. The scale of this demand anchor means that scrap markets are structurally linked to construction activity cycles in a way that provides both resilience and cyclicality.

From a supply-side perspective, scrap generation is heavily concentrated in economies with large existing steel-in-use bases - the United States, European Union, Japan and increasingly China - while scrap consumption growth is fastest in import-dependent emerging markets, particularly Turkey, India, and Southeast Asia. This geographic mismatch between scrap generation and scrap consumption creates the international trade flows that are the commercial backbone of the market, and it also creates the price volatility that characterises scrap trading when freight costs, geopolitical events, or currency movements disrupt normal flow patterns.

On the trade side, Turkey is the world's largest scrap importer, accounting for approximately 18–20 million tonnes per year of imports, primarily from the United States and Northern Europe. Its position at the nexus of European scrap supply and Middle Eastern/African demand for Turkish EAF long products makes it the most critical pricing node in the global scrap system. Disruptions to Turkish demand - whether from steel market downturns, currency crises, or geopolitical tensions - have rapid and significant price transmission effects across global scrap markets.

Fact.MR analysis shows that these intersecting demand, supply and trade dynamics create both opportunity and systemic risk. The concentration of scrap generation in mature economies and scrap consumption growth in import-dependent emerging markets creates compelling arbitrage opportunities for processors and traders with logistics capabilities. At the same time, the market's sensitivity to freight costs, currency movements, and geopolitical disruption means that operational resilience and supply chain diversification are as important as processing efficiency and quality certification in determining long-run competitive performance.

End-Use Consumer Analysis - Steel Scrap Market

Who Is Purchasing Steel Scrap - and What Drives Their Procurement Decisions?

Understanding the steel scrap buyer in 2026 requires moving beyond simple industry classification. Fact.MR's buyer analysis identifies five distinct procurement personas that together account for over 85% of total market value by tonnes processed and traded. These segments differ meaningfully in their quality requirements, price sensitivity, procurement channel preferences, and strategic priorities - and treating them as a homogeneous commodity buyer base is a fundamental strategic error that consistently leads to mis-priced supply agreements and lost margin.
Figure 1: Procurement Channel Preference by Consumer Segment - Steel Scrap Market

Buyer Behaviour: What the Procurement Data Tells Us

Fact.MR's buyer research reveals three behavioural patterns with significant strategic implications for scrap processors and traders. First, quality-based procurement is replacing price-first procurement among EAF flat-roll producers at a faster rate than aggregate market data suggests. These buyers - who represent the highest-value, highest-growth segment of scrap demand - are willing to pay consistent premiums of USD 15–40 per tonne for certified, low-residual grades backed by supply agreements that guarantee minimum quality thresholds. For processors, capturing these buyers with consistent quality supply is a more durable margin strategy than maximising spot volume at marginal prices.

Second, the growing importance of carbon credentials in procurement decisions is moving from a niche ESG box-ticking exercise to a genuine commercial differentiator. Major automotive OEMs including Volkswagen, Stellantis and Toyota are implementing Scope 3 emissions tracking that traces the carbon intensity of the steel in their vehicles back to the scrap feedstock used. Scrap processors with certified carbon accounting - particularly those using renewable energy in processing and optimised logistics to reduce transport emissions - are gaining early-mover advantage in supplying this emerging requirement.

Third, long-term supply agreement coverage is increasing among premium EAF producers as a deliberate supply security strategy. Processors that can secure 12–24 month agreements with floor-price provisions are finding that these arrangements, while limiting upside in price spikes, provide the volume certainty needed to justify quality infrastructure investment and create a virtuous cycle between investment and client retention.

Competitive Benchmarking - Steel Scrap Market

Fact.MR analysis highlights a clear divergence in operational capabilities, geographic positioning, and quality differentiation across key participants in the global steel scrap market. Unlike pure commodity markets where price is the dominant factor, leadership in the steel scrap industry is increasingly defined by investments in processing quality, advanced sorting technologies, logistics infrastructure, and supply chain integration.

The analysis indicates that U.S.-based processors maintain a strong leadership position in terms of quality and certification standards, supported by long-term investments in shredding infrastructure, non-ferrous separation technologies, and adherence to globally recognized specifications such as ISRI standards. These capabilities enable consistent production of high-grade, furnace-ready scrap, positioning U.S. players as preferred suppliers in global markets.

European processors demonstrate a clear edge in sustainability and environmental compliance, driven by stringent regulatory frameworks and early adoption of environmental management systems such as ISO 14001. This positions European players to benefit from increasing demand for low-carbon and traceable raw materials in steel production.

Indian processors are witnessing rapid growth, supported by rising domestic steel demand and policy support for scrap recycling. The market remains relatively fragmented, with smaller-scale operations and lower penetration of advanced processing and certification standards, creating both a quality gap and a significant opportunity for investment and modernization.

The United States, European Union, and Japan dominate the export of high-quality processed scrap, consistently achieving pricing premiums over lower-grade materials such as HMS 2. This reflects superior processing standards and reliability. Premium scrap flows represent the most commercially attractive segment of global trade and are expected to see intensified competition as emerging market players invest in quality upgrades to access high-value export markets.

Regional Analysis

The report on the global Steel Scrap Market categorizes key regions including South Asia & Pacific, Middle East & Africa, North America, Latin America, Western Europe, Eastern Europe, and East Asia. It provides geographic segmentation where market dynamics vary based on factors such as EAF steelmaking capacity, construction sector activity, industrial scrap generation rates, regulatory frameworks for carbon pricing and recycled content, scrap collection infrastructure maturity, and international trade competitiveness.

The analysis further offers a comprehensive assessment of regional market attractiveness over the forecast period using parameters such as scrap generation potential, EAF capacity expansion pipeline, import-export competitiveness, carbon policy stringency, and logistics infrastructure quality. Regional demand patterns are shaped by differences in economic development stage, industrial structure, regulatory environment, and the relative cost position of scrap versus ore-based steelmaking in each geography.

CAGR Table of Steel Scrap Market

Source: Fact MR (FMR) analysis, based on proprietary forecasting model and primary research.

South Asia & Pacific

South Asia & Pacific is the fastest-growing region in the steel scrap market, driven by rapid industrialization, infrastructure development, and increasing adoption of electric arc furnace (EAF) steelmaking.

• India: Demand is projected to grow at a CAGR of 6.9% through 2036, supported by strong construction activity, rising steel demand, and increasing reliance on scrap-based production.
• Southeast Asia & Australia: Growth is supported by expanding manufacturing sectors, urbanization, and increasing investments in steel production capacity.

Middle East & Africa

The Middle East & Africa represents a developing, high-potential market, driven by growing construction activities and increasing steel production capacity.

• Growth is supported by rising infrastructure investments, expansion of industrial projects, and increasing scrap imports to meet steel demand.
• Increasing adoption of EAF-based steelmaking is also contributing to higher scrap consumption.

North America

North America remains a mature and well-established market, characterized by advanced recycling infrastructure and high scrap utilization rates.

• United States: Demand is projected to grow at a CAGR of 3.8%, supported by a strong EAF-based steel industry, stable construction demand, and well-developed scrap collection systems.
• Canada: Growth is supported by steady industrial activity and efficient recycling networks.

Latin America

Latin America represents a moderate-growth market, supported by expanding industrialization and improving steel demand.

• Brazil & Mexico: Growth is driven by infrastructure development, automotive production, and increasing adoption of recycled steel.
• The region is also witnessing gradual improvements in scrap collection and processing capabilities.

Western Europe

Western Europe is a mature and sustainability-driven market, supported by strict environmental regulations and advanced recycling systems.

• Germany: Demand is projected to grow at a CAGR of 4.0%, driven by strong industrial base, circular economy initiatives, and steady steel demand.

Growth remains moderate due to market maturity but is supported by increasing focus on green steel production.

Eastern Europe

Eastern Europe is witnessing steady growth, supported by industrial expansion and increasing integration with European steel markets.

• Growth is driven by rising scrap availability, improving recycling infrastructure, and cost-effective steel production.
• The region is also emerging as a competitive manufacturing base.

East Asia

East Asia remains a high-volume and significant market, supported by large-scale steel production and increasing scrap utilization.

• China: Demand is projected to grow at a CAGR of 4.9%, driven by regulatory push toward recycling, environmental policies, and transition toward scrap-based steelmaking.
• Japan: Growth is expected at a CAGR of 4.3%, supported by advanced recycling systems, high-quality scrap processing, and stable steel demand.

Fact.MR’s analysis of the Steel Scrap Market across South Asia & Pacific, Middle East & Africa, North America, Latin America, Western Europe, Eastern Europe, and East Asia includes country-level assessments covering India, China, Japan, United States, Germany, and other key markets. The report evaluates critical factors such as steel production capacity, scrap generation rates, recycling infrastructure, trade flows, and regulatory frameworks across regions.

It further examines evolving industry trends, including the increasing shift toward electric arc furnace (EAF) steelmaking, rising demand for high-quality processed scrap, and growing focus on sustainable and low-carbon steel production. Advancements in scrap processing technologies, including shredding and sorting, are improving efficiency and material recovery rates.

Additionally, the study analyzes pricing dynamics influenced by global steel demand, raw material cost fluctuations, and international scrap trade regulations. Supply chain efficiencies, scrap availability, and import-export dependencies are also assessed, along with expanding infrastructure investments in emerging economies. These factors collectively shape the long-term growth trajectory of the steel scrap market across key regions.

Competitive Landscape

How Are Key Players Competing in the Steel Scrap Market?

The steel scrap market is served by a diverse competitive ecosystem spanning large integrated processors with international trading operations, specialist regional processors focused on particular scrap grades or geographies, multinational trading companies managing complex international logistics and pricing arbitrage, and domestic merchant networks that aggregate small-volume collections into tradable quantities.

Major integrated processors including Sims Limited, OmniSource (Nucor), Metalico, TSR Recycling, and Scholz Recycling are focusing on quality leadership, geographic network breadth, and long-term supply agreement coverage with premium EAF producers. These players are investing in shredding capacity, advanced sorting technology, and carbon accounting capabilities that increasingly differentiate premium-grade suppliers from commodity competitors.

Product and quality differentiation in the steel scrap market is centred on residual content management, consistency of grade specification, logistics reliability, and increasingly, certified carbon intensity data that enables EAF customers to track and report Scope 3 emissions. Processors and traders that can provide transparent, auditable quality and carbon data alongside their material are gaining preference in long-term supply negotiations.

Key attributes driving procurement decisions include: scrap chemistry (residual copper, tin, chromium, nickel content), mechanical preparation quality (degree of shredding, size consistency, density), metal recovery rate, packaging and logistics (container loading, bulk vessel parcels), and increasingly, sustainability certification including ISO 14001 environmental management and chain-of-custody documentation.

Recent Industry Developments

• ArcelorMittal – Policy Advocacy / Low-Carbon Steel Transition (2025)
• ArcelorMittal Europe urged faster implementation of the Steel and Metals Action Plan to support its transition toward low-emission steelmaking, including EAF-based production routes that rely heavily on steel scrap. The move highlights the company’s dependence on supportive regulatory frameworks to scale scrap-based steel production. (ArcelorMittal) [1]
• Sims Limited – Long-Term Scrap Supply Agreement (2025)
• Sims Limited signed a memorandum of understanding to supply up to 550,000 tonnes of ferrous scrap annually, strengthening long-term supply visibility and reinforcing its position as a key supplier to steel producers. The agreement enhances supply chain stability in the global scrap market. (Sims Limited) [2]
• Sims Limited – Financial Performance, Recycling Growth & Acquisition-Led Expansion (2025)
• Sims Limited reported its FY2025 results, highlighting stable scrap volumes, continued investment in recycling operations, and a focus on improving margins through operational efficiency and processing capabilities. The company also expanded its sourcing capabilities through acquisitions such as Baltimore Scrap and Northeast Metal Traders, strengthening scrap intake volumes and enhancing its regional supply network. These developments reflect steady demand for recycled metals and Sims’ strategy to scale operations in line with growing sustainability-driven steel production. (Sims Limited) [3]
• ArcelorMittal – Low-Emission Steel Standard Support (2025)
• ArcelorMittal Europe increased its support for the Low-Emission Steel Standard, emphasizing the role of scrap-based steelmaking in achieving decarbonization targets. The initiative reinforces the importance of recycled steel and accelerates demand for high-quality scrap inputs. (Arcelor Mittal) [4]
• Tata Steel – Scrap-Based EAF Plant Commissioning (2025)
• Tata Steel inaugurated its first scrap-based Electric Arc Furnace (EAF) facility in India, marking a strategic shift toward sustainable steel production. The plant utilizes recycled scrap as the primary raw material, significantly increasing domestic scrap demand. (Tata Steel) [5]

Key Players of the Steel Scrap Market

• Sims Limited
• European Metal Recycling
• SA Recycling
• OmniSource
• Kuusakoski Group
• AIM Recycling
• Nucor Corporation
• ArcelorMittal
• Commercial Metals Company
• Gerdau
• Tata Steel
• Aurubis AG
• Dowa Holdings
• Umicore

Research Methodology

Fact.MR has developed a series of structured, formulaic models to support decision-making in the steel scrap market - covering demand forecasting, feedstock optimisation, cost benchmarking, and quality premium analysis.

• Scrap Demand Estimation Model:
  • Scrap Demand (Mt) = Crude Steel Production (Mt) × EAF Share (%) × Scrap Input Rate per EAF Tonne + BOF Production (Mt) × BOF Scrap Charge Rate (%).
  • As an illustration, 200 Mt of EAF production at 85% scrap input rate yields 170 Mt of scrap demand from EAF alone. This model enables steel producers and processors to forecast demand at the country and regional level, tracking the impact of EAF capacity additions on scrap consumption.
• Quality Premium Index:
  • Quality Premium = (Premium Grade ASP − HMS 2 ASP) ÷ HMS 2 ASP × 100.
  • When HMS 1 averages USD 360/t and HMS 2 averages USD 340/t, the quality premium index is 5.9% - and shredded at USD 390/t represents a 15.1% premium. This model helps processors quantify the revenue value of quality investment relative to capital cost.
• Scrap Availability Model:
  • Obsolete Scrap Generation (Mt) = Steel-in-Use Base × Average Replacement Rate × Collection Efficiency.
  • Countries with large steel-in-use bases (US: 3.5 billion tonnes, EU: 2.8 billion tonnes, China: 9+ billion tonnes and growing rapidly) have predictable long-run scrap generation trajectories that can be modelled for strategic supply planning.
• Carbon Intensity Score:
  • Scrap-based EAF CO₂ per tonne crude steel = Electricity Grid Intensity × Power Consumption per Tonne + Electrode and Alloy Additions Intensity.
  • At a grid intensity of 400g CO₂/kWh and 550 kWh/tonne power consumption, EAF generates approximately 0.22 tonnes CO₂ per tonne of steel - compared to 1.8–2.0 tonnes for BF/BOF routes. This model quantifies the carbon advantage of scrap-based production and supports buyers' Scope 3 reporting.
• Data Validation:
  • Market estimates were validated through triangulation using global steel production data, scrap trade statistics, customs export data from major exporting countries, and primary interviews with scrap processors, traders, and procurement teams within steel manufacturing companies. Historical scrap price trends were also analyzed to calibrate pricing assumptions and ensure alignment with real-world market dynamics, including supply-demand fluctuations and trade movements.
• Analyst Opinion:
  • The steel scrap market is undergoing its most significant structural transformation in decades. The decarbonisation imperative has elevated scrap from a cyclical commodity input to a strategic resource, and the quality and supply security dimensions of scrap procurement are becoming as commercially important as price. Processors, traders and investors who recognise this shift and align their capabilities accordingly - through quality investment, carbon accounting, and long-term supply agreements - are positioned to capture disproportionate value as EAF capacity expands and scrap demand intensifies globally.

Strategic Decision Analysis - Steel Scrap Market

The steel scrap market, while historically managed as a commodity procurement function, is undergoing a strategic reset driven by the convergence of decarbonisation imperatives, quality-based EAF procurement, and carbon pricing policy. Fact.MR's analysis indicates that the traditional basis of competition - collection scale and price negotiation - is giving way to a more complex competitive model where quality differentiation, supply security, carbon credentials, and logistics integration define the winners.

In accordance with Fact.MR's findings, key decisions for players in this market revolve around three core questions: where to compete (commodity collection and bulk trading versus quality-differentiated processing and long-term supply), how to process (throughput maximisation versus quality optimisation), and where to source (domestic industrial scrap versus international obsolete scrap trade). Leading processors including Sims Limited and OmniSource are demonstrating the value of investing simultaneously in processing quality, geographic network, and EAF customer relationships - building supply chain positions that commodity collectors and traders cannot readily replicate.

As Fact.MR concludes, a structured strategic decision framework is essential for navigating this evolving landscape. It should begin with portfolio clarity - defining the specific scrap grades, geographies, and customer segments where the company has or can build competitive advantage. This assessment should drive quality investment decisions: which shredding, sorting and certification capabilities are needed to serve target customer quality requirements? Investment prioritisation should then follow, focusing capital on the highest-value quality improvement levers rather than raw throughput expansion.

In terms of execution, Fact.MR advises processors and traders to prioritise long-term supply agreement development with EAF customers as the primary commercial strategy - these agreements provide the volume certainty needed to justify quality infrastructure investment while creating barriers against pure-price competitors. For investors, allocating capital toward quality-differentiated platforms with established EAF relationships and traceable certification systems delivers more durable returns than commodity volume plays.

Case Study - Quality Upgrade & Export Market Development for a Mid-Sized European Scrap Processor

A mid-sized European scrap processor with annual throughput of approximately 350,000 tonnes - primarily HMS 2 and mixed obsolete grades - sought to evaluate the feasibility of upgrading its processing capability to access premium export markets and improve its competitive position against domestic price competition. The client was uncertain about the volume and quality thresholds needed to justify shredder investment, the target export markets most receptive to its improved grades, and the timeline to revenue realisation.

Fact.MR conducted a comprehensive techno-commercial feasibility study. The demand assessment quantified premium-grade scrap demand in target export markets - Turkey, India, and Southeast Asia - at the country level, identifying demand and price windows for HMS 1 and shredded grades. The competitive analysis mapped existing premium-grade suppliers to these markets, their volume commitments, and the quality gaps that a new certified European supplier could address.

A detailed cost modelling framework was developed covering shredder capital cost and installation, downstream separation equipment (eddy current, magnetic, sensor-based), operating cost per tonne at target throughput, logistics from facility to export port, and ocean freight to target markets. The analysis defined the minimum throughput scale at which premium-grade shredded export was commercially viable at conservative spread assumptions, and identified the feed mix (mix of HMS 1-equivalent demolition scrap and end-of-life vehicle hulks) required to sustain target output quality.

Based on this analysis, Fact.MR recommended a phased investment approach: Phase 1 upgrading the existing hammer mill and installing eddy current separation to improve HMS 1 yield and quality, Phase 2 adding sensor-based sorting for non-ferrous contamination removal, and Phase 3 pursuing ISO 9001 certification and ISRI grade compliance documentation to qualify for long-term supply agreements with Turkish EAF buyers. The study identified a 4.8-year payback period at central spread assumptions and enabled the client to secure development financing and begin Phase 1 implementation within 14 months.

Bibliographies

• ArcelorMittal Europe urges faster implementation of Steel and Metals Action Plan to support low-emission steel transition and scrap-based EAF production expansion [1],
• Sims Limited signs memorandum of understanding to supply up to 550,000 tonnes of ferrous scrap annually, strengthening long-term supply chain stability and scrap availability [2],
• Sims Limited reports FY2025 results highlighting recycling growth, operational efficiency improvements, and acquisition-led expansion to enhance scrap sourcing capabilities [3],
• ArcelorMittal strengthens support for Low-Emission Steel Standard, emphasizing increased use of recycled scrap in decarbonized steel production [4]
• Tata Steel inaugurates its first scrap-based Electric Arc Furnace in India, advancing sustainable steelmaking and increasing domestic scrap utilization [5]

Steel Scrap Market Definition

Steel scrap consists of ferrous metal materials recovered from industrial manufacturing processes, end-of-life products, and demolition activities that are suitable for remelting and reprocessing into new steel through electric arc furnace (EAF) or basic oxygen furnace (BOF) steelmaking routes. The market encompasses the collection, processing, grading, trading, and consumption of ferrous scrap across its principal source categories - Industrial Scrap generated during manufacturing and fabrication, and Obsolete Scrap recovered from end-of-life vehicles, appliances, buildings, and infrastructure - and across its primary material types of Carbon Steel Scrap, Alloy Steel Scrap, and Stainless Steel Scrap.

The market includes scrap in processed forms including Heavy Melting Scrap (HMS), Shredded Scrap, Turnings and Borings from machining operations, and Bundled Scrap from light-gauge materials. It covers domestic collection and processing markets as well as international scrap trading flows, scrap pricing and quality benchmarking systems, and the contractual relationships between scrap suppliers, traders, brokers, and steel producers across all major global steel-producing and consuming regions.

Steel Scrap Market Inclusions

• Segment analysis by Source (Industrial Scrap, Obsolete Scrap), Material Type (Carbon Steel Scrap, Alloy Steel Scrap, Stainless Steel Scrap), Form (HMS, Shredded, Turnings/Borings, Bundled), Recycling Method (EAF, BOF), End-Use Industry (Construction, Automotive Manufacturing, Machinery & Tools, Infrastructure & Heavy Industry), and Region.
• Regional performance comparison across North America, Latin America, Western Europe, Eastern Europe, East Asia, South Asia & Pacific, and Middle East & Africa, highlighting demand variations driven by EAF capacity additions, construction activity, carbon policy, and industrial scrap generation rates.
• Pricing trend evaluation, scrap grade premium analysis (HMS 1 vs. HMS 2 vs. Shredded), logistics cost structures, and supply chain dynamics including international scrap trade flow analysis.
• Technology and market development outlook, including advancements in shredding and non-ferrous separation technology, sensor-based sorting systems, scrap quality certification frameworks, and DRI-scrap blending strategies for advanced steel grade production.
• Analysis of demand shifts driven by EAF capacity expansion, carbon pricing policy (EU CBAM, carbon taxes), recycled content mandates in automotive and construction steel procurement, and evolving scrap generation patterns from emerging economy industrialisation cycles.
• Competitive landscape assessment covering major integrated scrap processors, international trading companies, regional merchant networks, and their respective scale, quality certification status, and end-user relationships.

Steel Scrap Market Exclusions

• Non-ferrous scrap metals including aluminium, copper, zinc, lead, nickel and other non-ferrous streams that are recovered from shredding and separation but traded in separate commodity markets.
• Standalone DRI and HBI (hot-briquetted iron) markets, which serve as scrap complements or substitutes in EAF steelmaking but are produced from ore-based reduction processes rather than ferrous scrap recycling.
• Primary steelmaking from iron ore via blast furnace/BOF routes where scrap is used as a cooling charge in minor proportions rather than as a primary feedstock.
• Ferro-alloy markets for chromium, manganese, nickel, vanadium and other alloying additions used in specialty steel production, except where directly recovered from alloy scrap processing.
• Slag and steel mill co-products that are separately traded as construction aggregates or cement raw materials.
• Informal and unregistered scrap collection activities in markets where data integrity and standardisation cannot be assumed.