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Stannous sulfate

  • 180000CNY/TON Updated: 2026-06-23
  • Price change (DoD): 0
    Average price (3M):180000 CNY/TON
    Price Level(1Y):High
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Stannous sulfate Prices Trends in China

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Reg Spec 2026/06/18 2026/06/22 2026/06/23 ChangeUnit Comparison

Stannous sulfate Market share- How big is the Stannous sulfate market?

China and India are the leading exporters of stannous sulfate, accounting for the majority of global shipments, while the United States, Germany, and South Korea are the largest importers. Stannous sulfate prices have remained relatively stable amid steady demand from electroplating and pharmaceutical sectors. Exports from China have shown modest growth over the past two years, while Indian exports have plateaued, and U.S. imports have increased slightly amid tightening supply chain scrutiny.

Stannous sulfate Market Analysis

Tin(II) Sulfate: Recent Market Intelligence Report

I. Price Trends
1. Domestic Market:
- Recently, domestic tin(II) sulfate prices have exhibited range-bound volatility. According to ChemNet data, the benchmark price remained stable at RMB 10,000–12,000 per metric ton from June 16 to 17, 2026. Compared with the average price of RMB 19,500 per metric ton in November 2025 (note: the originally cited figure of RMB 195,000/ton is likely a typographical error), the price center has shifted downward, while the volatility range has narrowed to within ±12%.
- Regionally, Chongqing’s price range stood at RMB 8,000–12,000 per metric ton in December 2025, supported by seasonal demand surges from the electroplating industry, offering upward pricing potential.

2. International Market:
- Significant regional price divergence persists: as of February 2026, U.S. market prices ranged from USD 1,500–2,500 per metric ton (approx. RMB 10,800–18,000), European market prices from USD 1,600–2,600 per metric ton, and Asian market prices from USD 1,500–1,800 per metric ton. Such disparities stem primarily from regional supply-demand imbalances, logistics costs, and trade policy frameworks.

II. Supply-Demand Structure
1. Supply Side:
- Capacity Distribution: China is the world’s largest producer, with total capacity reaching 12,850 metric tons per year in 2025 and actual output at 9,740 metric tons—yielding a capacity utilization rate of 75.8%. Major production bases are concentrated in Jiangxi (28.4%), Hunan (23.6%), Guangxi (19.0%), and Sichuan (14.6%), forming a 'core four-province plus multi-point collaboration' industrial layout.
- Technological Barriers: Electronic-grade products (purity ≥99.99%) account for 65% of the domestic market share; however, import dependency remains as high as 33.3%. Six leading enterprises—including Yunnan Tin Company and Hunan Jinhua—collectively hold 83.6% of market share, indicating a highly concentrated industry (CR6).
- Policy Constraints: Under China’s dual-carbon goals, carbon intensity thresholds for new projects have been quantified at 4.8 kg CO?e/kg product. Concurrently, international green trade barriers such as the EU’s Carbon Border Adjustment Mechanism (CBAM) are compelling manufacturers to upgrade environmental protection equipment, thereby increasing production costs.

2. Demand Side:
- Downstream Applications: Electroplating accounts for 63.2% of total consumption (316,000 metric tons in 2025); electronic chemicals (e.g., LED packaging, flexible printed circuit boards) represent 9.7% of demand but grow at a robust 22.4% YoY; emerging applications in new energy sectors—including perovskite photovoltaics and solid-state batteries—are experiencing accelerated penetration.
- Regional Demand: East China exhibits a capacity utilization rate of 78% (driven by dense electronics manufacturing clusters); South China achieves 75% (export-oriented electroplating demand); North China lags at 68%, constrained by stringent environmental regulations limiting production releases.

III. Cost Drivers
1. Raw Materials:
- Tin Prices: LME tin averaged USD 31,260 per metric ton in 2025—a 5.7% YoY increase—directly elevating tin(II) sulfate production costs. Geopolitical risks in major producing regions (e.g., Myanmar) exacerbate supply vulnerability, while recycled tin utilization remains low at only 12.8%.
- Sulfuric Acid: Domestic sulfuric acid averaged RMB 605 per metric ton in 2025—an explosive 105% YoY surge—significantly raising input costs, particularly for smelter-grade acid used as a precursor.

2. Environmental Compliance Costs:
- Industry-wide investment in advanced wastewater treatment has increased, lifting per-ton manufacturing costs from RMB 41,200 in 2024 to RMB 42,800 in 2025—a 3.9% rise.

IV. Market Outlook
1. Price Volatility:
- Short-Term: Supported by elevated tin prices and peak-season electroplating demand, domestic prices are expected to remain within RMB 10,000–12,500 per metric ton; overseas prices will continue fluctuating between USD 1,500–2,600 per metric ton due to persistent regional supply-demand asymmetries.
- Long-Term: As new electronic-grade capacity comes online (e.g., Yunnan Tin’s newly commissioned 12,000-ton-per-year facility), premium pricing for high-end products may narrow. However, accelerating demand from new energy applications will provide structural support.

2. Supply-Demand Dynamics:
- Supply: Total demand in 2026 is projected at 18,500 metric tons, with electronic-grade products exceeding 65% share; yet effective supply shortages persist, potentially reducing import dependency to below 30%.
- Demand: Rising penetration in new energy sectors will drive structural transformation—electronic electroplating penetration has reached 66.7%, while applications in perovskite PV and solid-state batteries are expected to collectively exceed 15% of total demand.

3. Policy Impacts:
- Upcoming revisions to domestic standards—including new classifications for electronic-grade materials and stricter chloride ion limits (≤10 μg/g)—will accelerate industry consolidation, prompting technologically disadvantaged SMEs to exit the market. CR5 concentration is projected to surpass 75%.
- International green trade barriers like the EU CBAM may raise export compliance costs, incentivizing enterprises to establish Environmental Product Declaration (EPD) systems aligned with global sustainability standards.

V. Risks and Opportunities
1. Key Risks:
- Sharp volatility in tin prices—e.g., supply disruptions triggered by political instability in Myanmar;
- Increasing environmental regulatory stringency driving up compliance expenditures;
- Slower-than-expected adoption in new energy applications, risking structural overcapacity.

2. Strategic Opportunities:
- Substantial room for domestic substitution of electronic-grade products (current import dependency: 33.3%);
- Breakthroughs in recycled tin recovery technology—currently underutilized at just 12.8%—could meaningfully reduce raw material costs;
- Green trade barriers serve as catalysts for technological upgrading, enhancing international competitiveness.

About Stannous sulfate

Stannous sulfate (SnSO₄) is a white to off-white crystalline solid, typically odorless and non-volatile, with decomposition occurring before melting under standard conditions. It is an inorganic tin(II) salt and a reducing agent commonly employed in electroplating and metal finishing applications. Its primary industrial use is as a source of stannous ions in electrolytic tin plating baths for steel and electronic components. It also serves as a catalyst or precursor in the synthesis of organotin compounds and as a stabilizer in certain polymer formulations. Key application areas include electronics manufacturing, corrosion-resistant coatings, and specialty chemical synthesis.

Stannous sulfate is the sulfate salt of stannous. Study has shown that it can be mixed with gypsum to make a retarder in grinding portal cement and blended hydraulic cement, which can improve the quality of the cement, mortar and concrete. It can also be used as the reducing agent during the determination of mercury, cobalt and nickel through atomic absorption spectrophotometry. It can also be used as an electrolyte additive to be supplemented to the battery. This could have a positive effect on restraining larger particles of irreversible sulfation in charge-discharge cycles of battery testing.
off-white solid

This chemical is included in Fine Chemicals. See more about what is Stannous sulfate and Stannous sulfate SDS information.

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