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Global Electrical Steel Market - Strategic Insights and Forecasts (2025-2030)

Market Analysis, Growth, Trends & Forecast By Type (Grain Oriented, Non-Grain Oriented), By Application (Transformers, Motors, Inductors, Others), By End-user Industry (Energy, Automotive, Manufacturing, Household Appliances, Others), and Geography

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Report Overview

The Global Electrical Steel Market is anticipated to increase from USD 42.2 billion in 2025 to USD 56.0 billion by 2030, with a 5.8% CAGR during the forecast period.

Global Electrical Steel Market - Strategic Insights and Forecasts (2025-2030) market growth projection from $42.20B in 2025 to $56.00B by 2030 at a CAGR of 5.8%.
Global Electrical Steel Market - Strategic Insights and Forecasts (2025-2030) market growth projection from $42.20B in 2025 to $56.00B by 2030 at a CAGR of 5.8%.
Global Electrical Steel Market Highlights
Decarbonization Mandates
Governments are tightening grid efficiency requirements, which directly multiplies utility demand for ultra-thin grain-oriented electrical steel layers.
Automotive Electrification
Powertrain engineers are building high-RPM traction motors, shifting volume requirements toward ultra-low-loss non-grain-oriented silicon steel grades.
Upstream Supply Vulnerabilities
Specialty scrap and high-purity silicon supplies are experiencing localized shortages, creating severe cost pressures for cold-rolled laminate producers.
Industrial Automation Trends
Factory systems are adopting continuous-duty synchronous motors, expanding industrial buyer demand for high-magnetic-flux-density core laminations.

Demand drivers are shifting global steel production priorities away from commercial building materials toward advanced electromagnetic alloys. Industrial engineering firms are demanding high-permeability steel sheets to meet strict energy conservation baselines across manufacturing systems. This operational dependency stems from the physics of induction motors and transformers, which require continuous magnetic flux optimization to minimize structural heat generation.

Regulatory influence acts as the primary mechanism enforcing this transition, as governments implement mandatory efficiency floors for grid transformers. Energy security initiatives place strategic importance on domestic electrical steel processing capabilities, forcing regional manufacturing blocks to build isolated upstream supply chains to buffer cross-border trade disruptions.

Market Dynamics

Drivers

  • National regulatory agencies are implementing strict anti-idling and high-efficiency motor benchmarks, pushing industrial operations to replace standard induction systems with electrical steel-dependent premium motors.

  • Power transmission companies are adding massive offshore wind hubs to regional grids, accelerating the baseline demand for high-voltage step-up transformers built with specialized grain-oriented steel cores.

  • Automotive manufacturing plants are scaling the production of multi-motor electric drivetrains, concentrating long-term volume demand on ultra-thin non-grain-oriented steel sheets for optimal battery range preservation.

  • Urban centers are deploying localized microgrid arrays to support distributed energy resources, elevating municipal procurement of compact, low-loss distribution transformers.

Restraints and Opportunities

  • Specialized cold-rolling mill installations require massive upfront capital expenditures, creating structural capacity constraints that slow down the entry of new manufacturing players.

  • Complex chemical purifications during the silicon alloying process generate substantial carbon emissions, exposing steel producers to rising financial penalties under regional carbon border adjustment mechanisms.

  • The accelerating rollout of regional direct-current transmission lines creates a massive commercial opportunity for specialized inductor-grade electrical steel formulations.

  • Smart city initiatives are accelerating the deployment of hyper-connected automated sub-stations, creating a premium segment for customized, noise-dampening acoustic electrical steel grades.

Supply Chain Analysis

The global supply chain for electrical steel operates through a highly integrated, multi-tier sequence that depends heavily on specialized chemical inputs and precision manufacturing systems. Tier-1 steelmakers initiate the process by melting high-purity iron ore and scrap in specialized basic oxygen or electric arc furnaces. This phase requires precise ladle metallurgy to inject exact silicon concentrations up to 3.5%, alongside micro-alloys like aluminum and manganese.

The resulting slabs move to specialized hot-rolling facilities, which reduce the steel thickness before passing the material to dedicated cold-rolled electrical steel (CRES) processing lines. Here, precision equipment executes complex cold-rolling passes, intermediate anneals, and critical decarburization processes to control structural grain alignment.

Component fabricators then procure these highly technical cold-rolled coils to perform high-speed stamping, laser cutting, and insulation coating. These stamped laminations are stacked, bonded, and wound to build electromagnetic cores for motors, transformers, and inductors. The entire ecosystem faces severe supply constraints due to the limited number of cold-rolling assets globally capable of achieving the tolerances required for premium thin-gauge materials.

Government Regulations

Jurisdiction

Regulatory Body / Policy

Operational Impact on Market Demand

European Union

Carbon Border Adjustment Mechanism (CBAM)

Imposes carbon emissions tariffs on imported steel, forcing non-EU producers to adopt low-carbon electric arc furnace processing to remain competitive in Europe.

United States

Department of Energy (DOE) Transformer Efficiency Standards

Mandates strict efficiency levels for liquid-immersed and dry-type distribution transformers, shifting utility procurement away from lower-grade steels toward amorphous and premium grain-oriented formulations.

Global / International

IEC 60404 Series (Magnetic Materials Standards)

Establishes uniform measurement methods for magnetic properties, forcing global steel mills to standardize core-loss certifications across international trade boundaries.

Key Developments

  • March 2026: ArcelorMittal[1] France successfully produced its first commercial coil on the newly constructed electrical steel production line at its Mardyck facility, initiating a gradual capacity ramp-up to triple the group’s European high-value electrical steel output.

  • March 2026: Thyssenkrupp[2] Electrical Steel expanded its planned production shutdowns at its Isbergues facility in northern France through September 2026, responding directly to heavy import pressures in the European grain-oriented electrical steel sector.

  • May 2025: Nippon[3] Steel Corporation secured formal government support under the Japanese Green Transformation (GX) Promotion Act to convert its conventional blast furnace infrastructure at Kyushu Works to high-efficiency electric arc furnace operations.

Market Segmentation

By Type

The structural breakdown of the global electrical steel market by type centers on the internal crystallographic alignment of the silicon-iron alloys, which dictates their performance in distinct magnetic environments. Grain-oriented (GO) electrical steel goes through a highly specialized, multi-stage cold-rolling and thermal annealing routine that aligns the metal crystals in a single, predefined direction. This focused orientation minimizes core losses and maximizes permeability along the rolling axis, making it ideal for unidirectional magnetic fields. Power infrastructure developers are continuously purchasing grain-oriented variants because large-scale distribution transformers rely heavily on unidirectional magnetic flux patterns to maintain high grid voltages.

Conversely, non-grain-oriented (NGO) electrical steel utilizes an isotropic internal structure where the metallic grains are distributed randomly across all planes. This layout ensures uniform magnetic performance in all directions, which is critical for rotating machinery applications. Traction motor designers for electric drivetrains are driving massive demand for non-grain-oriented formulations because rotative components experience multi-directional, high-frequency magnetic forces. Fabricators are demanding thinner NGO laminations to combat the parasitic eddy currents that emerge at high rotational speeds, forcing steel mills to invest heavily in specialized precision cold-rolling machinery.

By Application

Application profiles reveal a market divided by specific engineering demands, where the primary operational requirements focus on reducing core losses or handling high frequencies. Transformers represent the largest application segment, operating as critical infrastructure components that require continuous, long-term energy optimization. Utilities are upgrading grid assets to mitigate baseline transmission losses, generating a steady stream of procurement orders for high-permeability steel sheets. This continuous demand pressure forces steel mills to prioritize high-grade, grain-oriented production runs over standard commercial steel profiles.

Motors represent an equally vital, fast-growing application sector driven by the global transition toward industrial automation and electric mobility systems. Machine builders are seeking non-grain-oriented steels with enhanced mechanical strength because high-RPM industrial and automotive motors subject the internal core laminations to intense centrifugal stress. Inductors utilize specialized electrical steel formulations to filter high-frequency harmonics in modern power electronics, representing a highly technical sub-segment. Equipment manufacturers are increasing their focus on custom inductor cores to support advanced renewable energy inverters and regional battery storage installations.

By End-User Industry

End-user demand profiles illustrate how macro-level regulatory shifts and capital expenditure cycles directly dictate steelmill production priorities. The energy sector drives a massive share of high-value procurement because power generation utilities must comply with strict regional grid-efficiency targets. Power companies are expanding grid connection points for remote solar and wind farms, pushing transformer manufacturers to secure long-term allocations of ultra-premium grain-oriented steel. This infrastructure build-out creates a reliable demand floor that insulates specialized steelmakers from typical real estate and construction economic cycles.

The automotive industry is transforming its supply networks, emerging as a major volume driver for ultra-thin non-grain-oriented steel sheets. Automakers are purchasing advanced alloy grades to maximize vehicle driving ranges, forcing chemical shifts in steel processing, such as increasing silicon and aluminum content. Manufacturing and household appliance sectors require specialized electrical steels to power high-efficiency factory automation drives and consumer cooling compressors. Appliance designers are continuously replacing older induction configurations with modern brushless designs, expanding the baseline demand for commercial-grade non-grain-oriented steel laminations.

Regional Analysis

Regional market dynamics reflect localized industrial capabilities, regulatory environments, and grid modernization schedules. The Asia-Pacific region functions as a massive production powerhouse and volume consumer, driven by extensive grid infrastructure build-outs and localized automotive supply networks. China is rapidly expanding its regional ultra-high-voltage (UHV) transmission networks, creating an enormous domestic demand sink for premium grain-oriented electrical steel. This massive domestic demand shields local steelmills from international trade challenges, while Indian infrastructure investments are similarly accelerating the demand for localized transformer core manufacturing.

North American procurement activities are increasing steadily as utilities work to replace aging power infrastructure and comply with new domestic efficiency mandates. The United States is experiencing significant demand expansion for distribution transformers, driven by grid-reinforcement initiatives and renewable energy integration projects. This surging demand is putting pressure on local supply chains, forcing component builders to source specialized grain-oriented sheets from international producers under complex tariff structures. At the same time, regional automotive manufacturing centers in Mexico are consuming a growing volume of non-grain-oriented steel to supply local electric vehicle powertrain assembly lines.

European market environments are facing intense structural challenges linked to high energy operational costs and shifting trade protection frameworks. European steelmills are facing intense import competition from Asian producers, pushing companies like Thyssenkrupp to adjust production volumes at specialized grain-oriented processing facilities. To counteract these imbalances, regional bodies are implementing mechanisms like the Carbon Border Adjustment Mechanism (CBAM) to support localized low-carbon steel processing. These protective trade policies are encouraging regional producers to focus capital investments on premium, thin-gauge electrical steels for high-efficiency industrial motors and wind turbine generators.

List of Companies

  • ArcelorMittal

  • POSCO

  • Baosteel Group Corporation

  • Voestalpine AG

  • Nippon Steel & Sumitomo Metal Corporation

  • ThyssenKrupp AG

  • Phoenix Mecano AG

  • NLMK (Novolipetsk Steel)

  • Nicore Electrical Manufacturing Co Ltd.

  • Leicong Industrial Co Ltd

  • Cogent Power Limited

  • ATI

  • AK Steel Corporation

Company Profiles

  • ArcelorMittal

ArcelorMittal is strategically positioning its manufacturing footprint to lead the low-carbon electrical steel market by shifting production from basic structural materials to high-value electromagnetic alloys. The company is investing heavily in electric arc furnace (EAF) technology and dedicated cold-rolling lines across Europe to satisfy strict regional carbon emissions criteria. This transition is expanding ArcelorMittal's capacity to supply high-grade, non-grain-oriented steel to the European electric vehicle sector directly from its specialized production hubs in France.

The company operates fully integrated processing sequences that control the material from raw iron input through to final specialty cold-rolled lamination coils. This structural control allows ArcelorMittal to maintain precise chemical consistency, ensuring low core-loss tolerances across its entire product lineup. The company is actively focusing on thin-gauge product segments to address growing demand from premium automotive traction motor manufacturers.

  • POSCO

POSCO is strategically setting itself apart by mastering high-permeability grain-oriented electrical steel formulations that optimize performance under intense magnetic loads. The company utilizes proprietary chemical compositions and specialized rolling sequences to achieve superior grain orientation, allowing transformer cores to maintain optimal efficiency. This focus on premium quality enables POSCO to win major supply agreements with international grid developers who require low-loss core materials for ultra-high-voltage transmission lines.

The producer operates highly optimized manufacturing centers in Asia and is selectively establishing downstream distribution hubs in major international markets to bypass trade friction. This localized strategy ensures a dependable supply of specialized silicon steel laminations to regional transformer fabricators. The organization is continuously updating its production lines to shift total output toward ultra-thin steel sheets, matching the technical requirements of next-generation power electronics.

  • Baosteel Group Corporation

Baosteel Group Corporation leverages massive economies of scale and extensive domestic raw material access to establish a highly competitive position in the global electrical steel landscape. The enterprise is continuously expanding its production capacity for both grain-oriented and non-grain-oriented steel variants, positioning it to satisfy massive volume requests from industrial buyers. This immense output capability allows Baosteel to support China's widespread domestic grid expansion projects while maintaining an active export presence across global manufacturing zones.

The manufacturer maintains deep integration with domestic automotive supply networks, providing a steady volume flow for its non-grain-oriented steel processing operations. This predictable demand framework enables Baosteel to optimize manufacturing asset utilization rates and buffer against global market price fluctuations. The corporation is steadily upgrading its downstream processing lines to deliver fully insulated, pre-slit lamination coils directly to motor and transformer assembly plants.

Analyst View

Grid modernization initiatives and vehicle electrification projects are driving a permanent structural shift toward premium, low-loss electrical steels. Success in this market requires producers to secure access to advanced cold-rolling assets and high-purity silicon formulations while successfully navigating evolving regional carbon border adjustment policies.

Global Electrical Steel Market Scope:

Report Metric Details
Total Market Size in 2025 USD 42.2 billion
Total Market Size in 2030 USD 56.0 billion
Forecast Unit Billion
Growth Rate 5.8%
Study Period 2020 to 2030
Historical Data 2020 to 2023
Base Year 2024
Forecast Period 2025 – 2030
Segmentation Type, Application, End-User Industry, Geography
Geographical Segmentation North America, South America, Europe, Middle East and Africa, Asia Pacific
Companies
  • ArcelorMittal
  • POSCO
  • Baosteel Group Corporation
  • Voestalpine AG
  • ThyssenKrupp AG

Market Segmentation

By Type

Grain Oriented
Non-Grain Oriented

By Application

Transformers
Motors
Inductors
Others

By End-user Industry

Energy
Automotive
Manufacturing
Household Appliances
Others

By Geography

North America
USA
Canada
Mexico
South America
Brazil
Argentina
Others
Europe
Germany
France
United Kingdom
Spain
Others
Middle East and Africa
Saudi Arabia
UAE
Others
Asia Pacific
China
India
Japan
South Korea
Indonesia
Thailand
Others

Table of Contents

  • 1. EXECUTIVE SUMMARY

  • 2. MARKET SNAPSHOT

    • 2.1. Market Overview

    • 2.2. Market Definition

    • 2.3. Scope of the Study

    • 2.4. Market Segmentation

  • 3. BUSINESS LANDSCAPE

    • 3.1. Market Drivers

    • 3.2. Market Restraints

    • 3.3. Market Opportunities

    • 3.4. Porter’s Five Forces Analysis

    • 3.5. Industry Value Chain Analysis

    • 3.6. Policies and Regulations

    • 3.7. Strategic Recommendations

  • 4. TECHNOLOGICAL OUTLOOK

  • 5. GLOBAL ELECTRICAL STEEL MARKET BY TYPE

    • 5.1. Introduction

    • 5.2. Grain Oriented

    • 5.3. Non-Grain Oriented

  • 6. GLOBAL ELECTRICAL STEEL MARKET BY APPLICATION

    • 6.1. Introduction

    • 6.2. Transformers

    • 6.3. Motors

    • 6.4. Inductors

    • 6.5. Others

  • 7. GLOBAL ELECTRICAL STEEL MARKET BY END-USER INDUSTRY

    • 7.1. Introduction

    • 7.2. Energy

    • 7.3. Automotive

    • 7.4. Manufacturing

    • 7.5. Household Appliances

    • 7.6. Others

  • 8. GLOBAL ELECTRICAL STEEL MARKET BY GEOGRAPHY

    • 8.1. Introduction

    • 8.2. North America

      • 8.2.1. USA

      • 8.2.2. Canada

      • 8.2.3. Mexico

    • 8.3. South America

      • 8.3.1. Brazil

      • 8.3.2. Argentina

      • 8.3.3. Others

    • 8.4. Europe

      • 8.4.1. Germany

      • 8.4.2. France

      • 8.4.3. United Kingdom

      • 8.4.4. Spain

      • 8.4.5. Others

    • 8.5. Middle East and Africa

      • 8.5.1. Saudi Arabia

      • 8.5.2. UAE

      • 8.5.3. Others

    • 8.6. Asia Pacific

      • 8.6.1. China

      • 8.6.2. India

      • 8.6.3. Japan

      • 8.6.4. South Korea

      • 8.6.5. Indonesia

      • 8.6.6. Thailand

      • 8.6.7. Others

  • 9. COMPETITIVE ENVIRONMENT AND ANALYSIS

    • 9.1. Major Players and Strategy Analysis

    • 9.2. Market Share Analysis

    • 9.3. Mergers, Acquisitions, Agreements, and Collaborations

    • 9.4. Competitive Dashboard

  • 10. COMPANY PROFILES

    • 10.1. ArcelorMittal

    • 10.2. POSCO

    • 10.3. Baosteel Group Corporation

    • 10.4. Voestalpine AG

    • 10.5. Nippon Steel & Sumitomo Metal Corporation

    • 10.6. ThyssenKrupp AG

    • 10.7. Phoenix Mecano AG

    • 10.8. NLMK (Novolipetsk Steel)

    • 10.9. Nicore Electrical Manufacturing Co Ltd.

    • 10.10. Leicong Industrial Co Ltd

    • 10.11. Cogent Power Limited

    • 10.12. ATI

    • 10.13. AK Steel Corporation

  • 11. APPENDIX

    • 11.1. Currency

    • 11.2. Assumptions

    • 11.3. Base and Forecast Years Timeline

    • 11.4. Key benefits for the stakeholders

    • 11.5. Research Methodology

    • 11.6. Abbreviations

    • LIST OF FIGURES

    • LIST OF TABLES

Global Electrical Steel Market Report

Report IDKSI061614068
PublishedMay 2026
Pages145
FormatPDF, Excel, PPT, Dashboard

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Frequently Asked Questions

The electrical steel market is expected to reach a total market size of US$56.0 billion by 2030.

The electrical steel market is expected to grow at a CAGR of 5.8% during the forecast period.

Electrical Steel Market is valued at US$42.2 billion in 2025.

The major players in the electrical steel market are ArcelorMittal, POSCO, Baosteel Group Corporation, Voestalpine AG, Nippon Steel & Sumitomo Metal Corporation, ThyssenKrupp AG, Leicong Industrial Co Ltd., AK Steel Corporation, many others.

An increase in infrastructural development, industrialization, a rise in the demand in the power sector, and urbanization is going to be the driving factors of the electrical steel market.

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