Basic Polyaluminium Chloride

Market Dynamics Intelligence for Basic Polyaluminum Chloride (B-PAC)

I. Price Dynamics
- Latest Quotations: As of June 23, 2026, B-PAC market quotations exhibit regional and supplier-based differentiation. For products with Al?O? content ≥28%, Henan Sentie Environmental Protection Technology Co., Ltd. quotes RMB 1,300 per metric ton; Wuhan Hengjiu Chemical Co., Ltd. quotes RMB 1,150 per metric ton; and Henan Shunzhibang Environmental Protection Technology Co., Ltd. quotes RMB 1,000 per metric ton. Quotations for other grades range between RMB 760 and RMB 1,200 per metric ton, varying by aluminum oxide content and supplier.
- Price Trend: Since May 2026, B-PAC prices have remained generally stable without significant fluctuations. As a reference, conventional polyaluminum chloride (non-basic PAC) maintained an average price of RMB 1,811.67 per metric ton from May to June 2026, reflecting overall market stability.

II. Supply-Demand Situation
- Supply Side: China hosts numerous PAC manufacturers, yet their scale and production capabilities vary considerably. While some enterprises consistently supply high-quality B-PAC, others—operating simpler production facilities—may experience greater product quality variability. As a specialized variant of PAC, B-PAC’s supply landscape mirrors this broader industry heterogeneity.
- Demand Side: Strengthening national environmental regulations and continuously rising demand from wastewater treatment, drinking water purification, and related sectors are driving steady growth in B-PAC demand. Notably, industrial wastewater treatment, papermaking, and textile industries are expanding their adoption of B-PAC.

III. Key Market Influencing Factors
- Raw Material Costs: Fluctuations in the prices of key raw materials—particularly hydrochloric acid—directly impact B-PAC production costs. In 2025, domestic hydrochloric acid prices experienced broad-range downward volatility, thereby weakening cost support for B-PAC producers.
- Policy Environment: National policies actively promote wastewater treatment and aquatic ecological restoration, providing strong policy backing for water treatment chemicals—including B-PAC. Concurrently, tightening environmental regulations are accelerating industry transformation toward green, low-carbon, and intelligent development.
- Competitive Landscape: The B-PAC market is highly competitive, with pricing serving as a critical competitive lever. Enterprises are enhancing competitiveness through quality improvement, cost optimization, and process innovation.

IV. Market Analysis & Assessment
- Market Stability: Recent price stability reflects a relatively balanced supply-demand relationship. Nevertheless, shifts in raw material costs, regulatory frameworks, or macroeconomic conditions may still introduce future price volatility.
- Demand Growth Potential: Ongoing enforcement of environmental policies—coupled with sustained expansion in wastewater treatment and drinking water purification—suggests robust long-term demand growth for B-PAC. Particularly in emerging markets and developing countries, demand potential remains substantial.

V. Outlook & Forecast
- Price Trend: B-PAC prices are expected to remain relatively stable over the near term. However, external factors—including raw material cost changes and policy adjustments—could trigger short-term price fluctuations. Enterprises are advised to closely monitor real-time market developments and adjust production planning and sales strategies accordingly.
- Market Demand: Driven by intensified environmental governance and growing application needs, B-PAC demand is projected to continue expanding. Companies should seize this opportunity by increasing R&D investment, enhancing product performance and consistency, and tailoring solutions to evolving end-user requirements.
- Industry Development Trends: The B-PAC industry is transitioning toward green, low-carbon, and intelligent manufacturing. Firms should proactively adopt energy-efficient technologies—such as low-acid-consumption synthesis processes and waste-heat recovery systems—to reduce energy use and emissions. Simultaneously, integrating smart manufacturing technologies will improve production efficiency, process control, and product quality stability.