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Trifluoroacetic acid

  • 34500CNY/TON Updated: 2026-05-30
  • Price change (DoD): 0
    Average price (3M):34500 CNY/TON
    Price Level(1Y):High
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Trifluoroacetic acid Prices Trends in China

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Trifluoroacetic acid Prices sources

Reg Spec 2026/05/28 2026/05/29 2026/05/30 ChangeUnit Comparison
East China
  • Shandong Content99.9% 32600 32600 32600 0/0 CNY/TON
  • Zibo, Shandong First-Class - 30000 30000 0/0 CNY/TON

Trifluoroacetic acid Market Analysis

TFA (Trifluoroacetic Acid) Recent Market Intelligence Report

I. Price Dynamics
- Latest Quotations: As of May 25, 2026, TFA market prices exhibit regional divergence. In Suzhou City, Jiangsu Province, the domestic 99.5% grade is quoted at RMB 31,000 per metric ton; in Wuhan City, Hubei Province, the domestic 99.0% grade is quoted at RMB 32,000 per metric ton; and within Shandong Province, pricing varies significantly—Liaocheng City offers domestic 99.9% grade at a low of RMB 23,750 per metric ton, whereas a Jinan-based enterprise quotes a premium-grade product at RMB 330,000 per metric ton (likely reflecting specialized specifications or custom production).
- Price Volatility: Compared to early May, mainstream price levels (RMB 23,000–38,000 per metric ton) remain broadly stable; however, extreme quotations observed in the high-end segment (e.g., premium-grade products) reflect tiered pricing strategies based on quality, purity, and application specificity.

II. Supply-Demand Balance
- Supply Side:
- Capacity Expansion: China is the world’s largest producer of TFA, accounting for over 55% of global capacity. Total national capacity exceeded 120,000 metric tons in 2025, with annual output reaching approximately 68,000 metric tons. Key producers include ChemChina Blue Sky, Shandong Feiyuan, and Yantai Zhongrui. New capacity continues to come online steadily.
- Regional Distribution: Shandong Province remains the primary hub of production capacity; however, intense intra-provincial competition has led to coexistence of low-priced offerings (e.g., Liaocheng’s RMB 23,750/ton) and ultra-premium products (e.g., Jinan’s RMB 330,000/ton).
- Demand Side:
- Traditional Applications: Steady growth persists in pharmaceutical intermediates (e.g., peptide synthesis) and agrochemicals (e.g., fluorinated herbicides), though demand expansion is constrained by downstream industry capacity limits.
- Emerging Applications: Rapid growth is evident in electronic chemicals—including semiconductor etchants and liquid crystal monomer purification. The global electronic-grade TFA market reached USD 182 million in 2024, with an anticipated compound annual growth rate (CAGR) of 6.7%.

III. Cost Structure & Regulatory Environment
- Raw Material Costs: Prices of key fluorine chemical feedstocks—including hydrofluoric acid (HF) and trichloroethylene (C?HCl?)—fluctuate under pressure from environmental regulations and supply constraints tied to phosphoric fertilizer by-product availability, directly impacting TFA production costs.
- Environmental Compliance Pressure: China’s fluorine chemical sector faces increasingly stringent environmental inspections. Smaller, non-compliant facilities are being forced to curtail operations or exit the market entirely—exerting short-term upward pressure on prices while accelerating long-term industry consolidation.
- International Regulations: EU REACH regulations and carbon border adjustment mechanisms (CBAM) constitute technical trade barriers for Chinese exports, compelling manufacturers to pursue high-end product upgrades and value-added differentiation.

IV. Key Market Drivers
- Downstream Application Expansion:
- Pharmaceutical Industry: Rising global demand for oncology therapeutics and antidiabetic drugs boosts TFA consumption—particularly its irreplaceable role as a catalyst in peptide synthesis.
- Electronic Materials: Surging demand for chips and advanced materials driven by 5G, AI, and electric vehicles is expanding applications of TFA derivatives—especially trifluoroacetyl fluoride—in semiconductor etching processes.
- Technological Advancement: Adoption of green synthesis technologies—including closed-loop recycling systems—reduces environmental impact and enhances product value, supporting sustainable industry growth.

Analytical Assessment
1. Increasing Price Polarization: High-end segments (e.g., electronic-grade and pharmaceutical-grade TFA) sustain elevated pricing due to high technical barriers and robust demand growth; conversely, industrial-grade markets face downward price pressure amid overcapacity and intensified competition.
2. Short-Term Supply-Demand Imbalance: Ongoing supply-side capacity expansion has outpaced near-term absorption capacity in emerging end-use sectors, resulting in oversupply in traditional markets and subdued pricing.
3. Policy and Environmental Factors Shape Long-Term Trajectory: Rising compliance costs will accelerate industry consolidation, favoring integrated enterprises with vertically aligned supply chains and advanced technological capabilities.

Forward Outlook
1. Price Trends:
- Short Term (1–3 months): Mainstream price range (RMB 23,000–38,000/ton) is expected to remain stable; however, industrial-grade prices may decline further under inventory pressure.
- Medium Term (6–12 months): Should demand from emerging sectors—especially electronic chemicals—exceed expectations, premium-grade prices may experience modest upward adjustment; traditional-grade pricing will remain anchored by structural supply-demand dynamics, limiting scope for significant volatility.
2. Market Size Forecast: The global TFA market is projected to grow at an average annual rate of 6.5%, exceeding 150,000 metric tons by 2028; China’s domestic demand is expected to surpass 80,000 metric tons, sustaining an annual growth rate of approximately 6%.
3. Industry Trends:
- Green Transformation: Enterprises will intensify investment in eco-friendly technologies—particularly TFA recovery and reuse systems—to lower both production costs and environmental risks.
- High-End Breakthrough: The share of electronic-grade and pharmaceutical-grade TFA will rise steadily; customized service offerings will become critical competitive differentiators, rewarding firms with superior technical expertise and higher barriers to entry.
- Global Competition: Export-oriented Chinese enterprises must proactively address Western technical trade barriers—by obtaining international certifications (e.g., ISO, REACH) and establishing localized production footprints—to strengthen global competitiveness.

About Trifluoroacetic acid



Trifluoroacetic acid is mainly for the production of new pesticide, medicine and dyes, and also has great potential of application and development in the fields of materials and solvents. Trifluoroacetic acid is mainly used for the synthesis of various kinds of trifluoromethyl group or heterocyclic containing herbicides. It is currently available for synthesizing various kinds of novel herbicide containing pyridyl and qunoilyl; acting as a strong proton acid, it is widely applied as the catalyst for alkylation, acylation, and olefin polymerization of aromatic compound; as a solvent, trifluoroacetic acid is a kind of excellent solvent for fluorination, nitration and halogenations. In particular, the excellent protective effect of its trifluoroacetyl derivatives on hydroxy and amino group has very important application in the synthesis of amino acid and poly-peptide synthesis, for example, the compound can be used as the protection agent of tert-butoxycarbonyl (t-boc) which is used for removing amino acids during the synthesis of poly-peptide. Trifluoroacetic acid, as the raw material and modifier for the preparation of the ion membrane, can largely improve the current efficiency of soda industry and significantly extend the working life of the membrane; trifluoroacetic acid can also be used for synthesizing trifluoro-ethanol, trifluoroacetic acetaldehyde and trifluoroacetic anhydride. At room temperature, the mercury trifluoroacetic acid can have mercury-fluorophenyl be able to have mercuration reaction (electrophilic substitution), and can also convert hydrazone to diazo compound. The lead salt of this acid can convert arene to phenol. In the experiment of reverse phase chromatography for isolation of peptides and proteins, using trifluoroacetic acid (TFA) as the ion-pairing reagents is a common approach. Trifluoroacetic acid in the mobile phase can improve the peak shape and overcome the problem of the peak broadening and trailing issue through interaction with hydrophobic bonded phase and residual polar surface in a variety of models. Trifluoroacetic acid has an advantage over other ion modifier due to that it is volatile and can be easily removed from the sample preparation. On the other hand, the maximum UV absorption peak of trifluoroacetic acid is less than 200 nm, and thus having very small interference on the detection of polypeptides at low wavelengths.
It is colorless, volatile fuming liquid with a similar odor as acetic acid. It is hygroscopic and has stimulating smell. It is miscible with water, fluorinated alkanes, methanol, benzene, ether, carbon tetrachloride and hexane. It can partially dissolve alkane with over six carbons as well as carbon disulfide.

This chemical is included in Fine Chemicals. See more about what is Trifluoroacetic acid and Trifluoroacetic acid SDS information.

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