tejas
11 posts
Aug 28, 2025
12:16 AM
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Market Overview
Manganese is an essential industrial metal with two dominant demand pillars: steelmaking and battery materials. In steel, manganese is a critical alloying and desulfurizing agent that improves strength, hardness, and wear resistance. In energy storage, high-purity manganese sulfate and emerging cathode chemistries (e.g., NMC, LMFP, LNM variants) are catalyzing a new growth leg for the industry.
The global manganese market size was valued at USD 24.51 billion in 2024 and is projected to grow from USD 25.76 billion in 2025 to reach USD 38.28 billion by 2033, growing at a CAGR of 5.08% during the forecast period (2025–2033).
What Is Manganese Used For? (Demand Structure)
Steel & Ferroalloys (major share):
Silicomanganese (SiMn) for deoxidation and alloying in construction steels.
High-carbon ferromanganese (HC FeMn) and refined FeMn for flat products, rails, and wear-resistant steels.
Batteries (fastest-growing slice):
Chemicals & Specialty: pigments, fertilizers (Mn as a micronutrient), water treatment, electronics, and aluminum/copper alloys.
Key Market Drivers
Infrastructure & Construction Cycles Public works, housing, transportation, and machinery investment sustain baseline demand for long and flat steels—hence for SiMn and FeMn.
EV Adoption & Grid-Scale Storage Battery-grade manganese compounds gain from rising EV penetration and the shift toward manganese-rich cathodes and LMFP (lithium manganese iron phosphate), prized for cost, safety, and thermal stability.
Cost Optimization vs. Nickel/Cobalt OEMs and cell makers see manganese as a lever to reduce cathode cost and de-risk supply from high-priced or geopolitically sensitive metals.
Supply Security & Local Processing Policymakers are incentivizing domestic refining of HPMSM and onshoring critical mineral chains, spurring new plants in North America, Europe, India, and Southeast Asia.
Environmental & Energy Considerations Smelting and refining are power-intensive; renewable-powered operations and low-carbon ferroalloys gain strategic importance for Scope 3 targets in steel and auto supply chains.
Market Headwinds & Risks
Price Volatility in ore and alloys due to weather, shipping bottlenecks, and cyclical steel demand.
Energy Prices & Carbon Policy affecting smelter margins and regional competitiveness.
Impurity Management challenges for HPMSM (battery-grade specs are stringent).
Project Execution Risk in new refining capacity—capex inflation, permitting timelines, and reagent/waste handling.
Chemistry Mix Uncertainty as OEMs toggle between LFP, NMC, and LMFP based on cost/performance dynamics.
Segmentation Snapshot
By Product
Ferroalloys: Silicomanganese, High-/Medium-/Low-Carbon Ferromanganese
Metals & Chemicals: Electrolytic Manganese Metal (EMM), Manganese Dioxide (EMD), HPMSM (battery-grade), Manganese Oxides/Carbonates
By Application
Steelmaking (construction, automotive, machinery, shipbuilding, energy)
Batteries (EVs, stationary storage)
Chemicals & Others (pigments, fertilizers, water treatment)
By End Use
Construction & Infrastructure
Automotive & Transportation
Energy & Utilities (grid storage, wind/solar balance of plant)
Industrial Machinery & Equipment
Consumer Electronics (via batteries)
By Region
Asia-Pacific (largest production and consumption base)
Europe (green steel push, battery localization)
North America (IRA-driven midstream build-out)
Latin America, Middle East & Africa (growth potential in mining and downstream processing)
Pricing & Cost Dynamics
Ore prices respond to Chinese port stocks, freight, and South African/Australian shipment cadence.
Ferroalloy premiums track steel mill demand and regional power costs; SiMn often mirrors construction cycles.
Battery-grade HPMSM pricing is increasingly decoupled from alloy markets, reflecting chemical-grade purity, reagents, and long-term offtake contracts with cell makers.
Technology & Process Trends
LMFP Scale-Up: Blends LFP’s safety with manganese’s voltage boost, enabling cost-effective range gains.
Manganese-Rich NMC: Ongoing R&D to cut nickel and cobalt intensity while preserving energy density.
Cleaner Smelting: Furnace digitalization, high-efficiency electrodes, and off-gas heat recovery to reduce energy per tonne.
HPMSM Quality Control: Multi-stage leach/impurity removal, ion exchange, and crystallization optimization to hit sub-ppm specs.
Recycling Pathways: Growing recovery of manganese from black mass streams to supplement primary supply and lower CO? footprint.
Regulatory & ESG Considerations
Critical Minerals Policy: Incentives for domestic refining and requirements for traceability.
Carbon Accounting: Steelmakers and automakers pushing suppliers for lower-carbon alloys and chemicals.
Waste & Water: Stricter handling rules for tailings, leach solutions, and solid residues, favoring best-available techniques.
Community & Biodiversity: New mines/refineries must demonstrate responsible land use and social license to operate.
Competitive Landscape (Illustrative)
Mining & Ore: South32, Eramet, Assmang, UMK, Comilog, MOIL, Vale (select assets), and various mid-tier producers.
Ferroalloys: Eramet, Ferroglobe, Assmang, OM Holdings, Sakura, Maanshan, and regional smelters across China/India/SEA.
Battery-Grade Chemicals: Chinese HPMSM leaders, emerging North American and European refiners, and integrated players expanding from EMM/EMD into HPMSM. Strategies: Long-term offtakes with steel mills and cathode/EV OEMs, energy hedging, localization of refining, and partnerships to meet ESG and traceability standards.
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