Source Hollow Fiber MBR Membrane for Industrial Agriculture Hospital
Compare 30 hollow fiber mbr membrane options from verified suppliers. View specifications including pore size, material, and packing for industrial, agricultural, and hospital applications to find the right solution.
Key considerations
Products List
Comprehensive Sourcing Guide
Strategic Sourcing Guide for Hollow Fiber MBR Membranes
Understanding the Core Technology and Material Composition
The hollow fiber membrane is a critical component in modern wastewater treatment, specifically within Membrane Bioreactor (MBR) systems. When sourcing these units, buyers must first distinguish the specific material composition, as this dictates chemical resistance and longevity. Based on current market observations, the predominant material for high-performance hollow fiber membranes is Polyvinylidene Fluoride (PVDF). This material is selected for its robust chemical stability and mechanical strength. The physical form of these membranes is consistently described as hollow fiber, which allows for a high surface area-to-volume ratio, essential for efficient solid-liquid separation.
The filtration mechanism typically operates on a microfiltration or ultrafiltration basis, with pore sizes commonly observed around 0.1 micrometers (μm). This specific pore size is crucial for intercepting suspended solids and bacteria, ensuring the produced water meets high turbidity standards, often observed at levels of ≤1 ntu. The operation mode for these systems is frequently "outside-in," where the feed water flows from the outside of the fiber to the inside, or conversely, the system may utilize pressure-driven filtration. Understanding whether the system relies on pressure or other motive forces is a primary step in evaluating the technical fit for a specific facility. The membrane's structural integrity is often highlighted by its strong impact load resistance, a vital attribute for withstanding the dynamic conditions of industrial and municipal wastewater environments.
Technical Specifications and Performance Metrics
When evaluating a potential procurement opportunity, buyers must scrutinize the detailed technical specifications provided by the supplier. The physical dimensions of the membrane modules are not uniform and vary significantly based on the model. For instance, specific models may have a center distance of 2080mm with a width of 830mm, while other configurations might adhere to dimensions like 864mm by 2220mm by 96mm. These dimensional variances directly impact the design of the bioreactor tank and the piping layout.
Performance metrics are equally critical. The membrane is designed to achieve high-efficiency solid-liquid separation, a function that is central to the MBR process. The resulting water quality is a key performance indicator; observed data suggests that produced water can achieve suspended solid levels of ≤5mg/L. The operational parameters define the limits within which the membrane can function safely. The pH range for operation is typically observed between 2 and 10, allowing for a broad spectrum of wastewater types. The operating temperature is generally maintained between 10 and 40 degrees Celsius, and the system operates under specific pressure conditions, often ranging from -0.01 to -0.06 MPa, with a maximum temperature tolerance noted in specific contexts as 50 Kpa.
The connection type is another technical specification that requires verification. Systems may utilize grooved flexible couplings or glue-on connections, which influence the ease of installation and maintenance. The method of treatment often involves a combination of biological treatment and the membrane filtration process, ensuring that the system is not just a filter but a complete treatment solution. The style of the membrane, whether tube or hollow fiber, and the application, such as UF (Ultrafiltration) systems, must align with the specific needs of the facility, whether it is for environmental protection, industrial processing, or agricultural use.
Compliance, Certification, and Standard Verification
In the realm of B2B procurement for water treatment equipment, verifying compliance and standards is a non-negotiable step. While specific certification bodies are not explicitly detailed in the provided data, buyers must insist on documentation that validates the product against recognized international or local standards. The "prod_standard" field often contains critical dimensional and structural data, such as the center distance and width, which serve as a baseline for quality assurance.
Buyers should verify that the product origin is clearly stated, with "Jiangsu, China" and "Made in China" being common origins for these units. The standardization of the product, including the model number (e.g., PRO-10, WDJX-PVDF-MBR, SMU-30A), is essential for ensuring that replacement parts and future expansions are compatible. It is imperative to check if the product adheres to specific industry standards for membrane filtration, even if the exact standard number is not listed in the initial product description. The absence of a specific certification claim in the provided facts does not imply a lack of compliance; rather, it necessitates a direct inquiry to the supplier for their Quality Management System (QMS) certificates and material safety data sheets.
Furthermore, the "prod_packing" standard, whether described as a "Standard Wooden Box," "Container Standard Packing," or "Woonden Case" (Wooden Case), indicates the level of care taken in logistics. Proper packaging is a proxy for the manufacturer's attention to detail and their commitment to protecting the delicate hollow fibers during transit. Buyers should ensure that the packaging standards meet the rigors of international shipping to prevent damage before the product even reaches the installation site.
Cost Drivers and Pricing Structure Analysis
The pricing of hollow fiber MBR membranes is influenced by a complex array of factors, including material costs, manufacturing complexity, and logistical expenses. The observed price range in the market is vast, spanning from $9.5 to $53,760 USD. This significant variance suggests that the price is not merely a function of the membrane material but is heavily dependent on the scale of the order, the specific model, and the included services.
A specific observation notes a price point of USD 13 per square meter for certain models. This metric provides a baseline for calculating the total cost based on the required membrane surface area. However, buyers must be cautious, as this unit price may not include installation, shipping, or customization fees. The Minimum Order Quantity (MOQ) is another critical cost driver. The observed MOQ range is from 1 to 1500 units. An MOQ of 1500 suggests that the supplier may be targeting large-scale industrial projects, while a lower MOQ of 1 indicates flexibility for smaller pilots or specific component replacements.
Customization is a significant factor in pricing. The availability of customization options allows buyers to tailor the membrane dimensions, pore size, or connection types to their specific needs. However, custom orders typically incur higher costs and longer lead times. The "Deliver Time" of 15 days is a specific data point that buyers should use as a benchmark, understanding that lead times can vary based on the complexity of the order and the current production capacity of the supplier. Buyers should also consider the total cost of ownership, which includes energy consumption for the operation pressure and the frequency of membrane cleaning or replacement.
Typical Applications and Operational Environments
Hollow fiber MBR membranes are versatile and find application across a diverse range of sectors. The primary usage categories identified include Industrial, Agriculture, Home, and Hospital environments. This broad applicability underscores the adaptability of the technology to different wastewater characteristics. In industrial settings, the membranes are used for high-efficiency solid-liquid separation, often handling complex effluents that require robust treatment. In agricultural contexts, they may be employed for water recycling or irrigation water treatment.
The "Method" of treatment is often described as "Combined Treatment" or "Biological Treatment," indicating that the membrane is part of a larger system that includes biological processes to break down organic matter. The "Type" of equipment is sometimes listed as a "Flotation Machine," suggesting that the MBR system may be integrated with flotation technologies for enhanced separation efficiency. The "Application" is frequently cited as "UF System" or "Environmental Protection," highlighting the role of these membranes in meeting stringent environmental discharge regulations.
The "Usage" also extends to "Home" and "Hospital" applications, where space constraints and high water quality standards are paramount. In hospitals, the ability to intercept pathogens and suspended solids is critical for preventing the spread of disease. The "Performance" attribute of "Efficient Filtration" is a key selling point for these applications, ensuring that the treated water is safe for reuse or discharge. Buyers should assess the specific operational environment of their facility to ensure the membrane's material and design can withstand the chemical and physical stresses of the wastewater stream.
Supplier Evaluation and Quality Control Protocols
Selecting the right supplier is as important as selecting the right product. When evaluating potential partners, buyers should look for clear evidence of the supplier's capabilities. The "Brand" name, such as "Shuiyi," may be a point of reference, but buyers should not rely solely on brand recognition without verifying the supplier's track record. The "Origin" of the product, consistently noted as China, suggests a supply chain that buyers must navigate with an understanding of international trade logistics.
Quality control should be a central part of the procurement process. Buyers must verify the "Material of Hollow Fiber," ensuring it matches the claimed PVDF composition. In some cases, the material is listed as "Pan," which requires clarification to ensure it does not indicate a different polymer or a typo in the product data. The "Operation Mode" and "Pressure Type" (in-out pressure) must be verified against the supplier's technical drawings to ensure compatibility with existing infrastructure.
The "Standard" of the product, including dimensions and structural integrity, should be cross-referenced with the buyer's engineering requirements. The "Packing" method, whether "Standard Wooden Box" or "Container Standard Packing," is a tangible indicator of the supplier's commitment to product safety. Buyers should request samples or test results to validate the "Produced Water Turbidity" and "Suspend Solid" levels before committing to a large order. The "Customization" availability should be confirmed with a clear understanding of the timeline and cost implications.
Long-Term Procurement and Lifecycle Management
Procuring hollow fiber MBR membranes is not a one-time transaction but the beginning of a long-term relationship. Buyers must consider the lifecycle of the product, including maintenance, cleaning, and eventual replacement. The "Advantages" of the membrane, such as "Simple Operation" and "Strong Impact Load Resistance," are key indicators of long-term reliability. However, the "Operation Temp" and "pH Range" limits must be strictly adhered to to prevent premature degradation.
The "Motive Force" of the system, typically pressure-driven, requires ongoing energy input. Buyers should evaluate the energy efficiency of the system over its lifespan. The "Connection Type" and "Style" of the membrane will influence the ease of maintenance and the availability of spare parts. A "Tube" style or "Hollow" fiber design may have different maintenance requirements compared to other configurations.
Buyers should also consider the "Deliver Time" and the reliability of the supply chain. A lead time of 15 days is a specific benchmark, but buyers should plan for potential delays, especially for custom orders. The "MOQ" of 1500 units may require a significant upfront investment, so buyers should assess their inventory management strategies. Finally, the "Customization" options should be leveraged to ensure the system is optimized for the specific needs of the facility, reducing the risk of operational issues down the line. By focusing on these long-term considerations, buyers can ensure a sustainable and efficient investment in hollow fiber MBR technology.
FAQs
What material is used for hollow fiber mbr membrane?
The primary material used is PVDF hollow fiber membrane. This composition ensures strong impact load resistance and simple operation for high-efficiency solid-liquid separation in various industrial and agricultural settings.
How does the membrane pore size affect water quality?
The membrane filament pore size is 0.1 micrometers. This specification allows the system to produce water with turbidity of 1 ntu or less and suspended solids of 5 mg or less per liter.
Can the hollow fiber mbr membrane be customized?
Yes, customization is available for specific project needs. Buyers can request tailored dimensions and connection types, though this may affect the minimum order quantity and delivery timeline of fifteen days.
Which operational pressure range is suitable for this system?
The system operates within a pressure range of negative 0.01 to negative 0.06 MPa. This pressure type supports efficient filtration while maintaining a maximum temperature tolerance of 50 Kpa during biological treatment.
What is the minimum order quantity for these membranes?
The minimum order quantity is 1500 units for standard configurations. However, some suppliers may offer lower quantities, so verifying the specific MOQ is essential before placing a large industrial order.
How is the product packed for international shipping?
Products are typically packed in standard wooden boxes or wooden cases. This container standard packing ensures the hollow fiber membranes are protected during transit from Jiangsu, China to global destinations.