Source Wastewater Treatment Bio Filler for Aquaculture, Agriculture, and Home Use
Compare 12 wastewater treatment bio filler options from Chinese manufacturers. These HDPE media support biological treatment in aquaculture, agriculture, and home settings, offering specific surface areas from 800 to 5500 m2/m3 and service lives exceeding 15 years for efficient nitrification and COD oxidation.
Key considerations
Products List
Comprehensive Sourcing Guide
Wastewater Treatment Bio Filler Sourcing Guide
Buyers must first distinguish between biological, chemical, and physical treatment methods when selecting a bio filler, as the supplied data indicates products are available for all three distinct processes. The observed listings reveal a wide spectrum of applications ranging from aquaculture to industrial and home wastewater treatment, requiring a precise match between the filler's specific surface area and the intended biological load. Understanding whether the target system relies on nitrification efficiency or BOD5 oxidation is critical before evaluating specific models like PE09 or Bio Chip.
Procurement teams should also verify the physical transport and packaging constraints, as the observed data lists air, sea, and land transport options alongside specific packing densities. The material composition, primarily HDPE, suggests durability, but the specific gravity variations between 0.94 and 1.0 g/cm3 indicate different settling behaviors that must align with the tank design. Buyers need to confirm if the product's hanging time of 5 to 15 days fits their project timeline and if the 1-year warranty covers the specific environmental conditions of their facility.
Product Scope and Observed Listing Signals
The market for wastewater treatment bio fillers presents a diverse range of models, including PE09, PE04, PE19, and PE85, each defined by unique dimensional standards and hole quantities. Some units feature 37 holes with a specific surface area of 800 m2/m3, while others offer up to 5500 m2/m3 with 19 holes, necessitating a careful review of the specific model number against the required hydraulic retention time. The observed price range of 5 to 290,000 USD suggests significant variation in scale, from small-scale home units to massive industrial installations, requiring buyers to clarify their exact volume needs.
Buyers must also scrutinize the listed application scope, as the data confirms suitability for both nitrification and COD oxidation, with efficiency rates varying significantly by model. The presence of grease trap anti-oil features in some listings indicates specialized designs for systems with high lipid content, while others focus on general filtration. It is essential to verify if the observed productivity of 500L/Hour applies to the specific unit being sourced, as this metric directly impacts the sizing of the treatment reactor and the overall system throughput.
Technical Specifications to Verify
Technical verification must begin with the specific surface area and hole configuration, as these factors directly influence the biofilm growth rate and oxygen transfer efficiency. The observed data highlights a critical distinction between models offering 800 m2/m3 and those exceeding 1600 m2/m3, which dictates the reactor volume required to achieve target treatment levels. Buyers should request detailed drawings to confirm the standard dimensions, such as φ 2510mm or φ 364mm, ensuring they match the existing diffuser or support structures in their facility.
Density and temperature tolerance are equally vital parameters that determine the filler's longevity and performance under varying operational conditions. The specific gravity ranges from 0.95 to 1.0 g/cm3 after filming, which affects the suspension dynamics within the aeration tank, while the applicable temperature range of 65 to 35°C defines the thermal limits of the biological process. Procurement teams must validate that the pH tolerance of 5 to 11 aligns with their influent characteristics and that the thickness of 1.1mm provides sufficient mechanical strength for the intended aeration intensity.
Compliance and Safety Documentation
Compliance verification requires confirming the customs code 3916100000 to ensure correct tariff classification and import readiness for international shipments. Buyers should request a Certificate of Origin stating the product originates from Guangdong, China, to verify supply chain transparency and potential trade agreement benefits. It is also necessary to confirm that the HDPE material used meets local environmental safety standards for wastewater contact, ensuring no leaching of harmful substances occurs during the 15-year service life.
Safety documentation must include a clear statement on the product's non-toxic nature and its compatibility with the specific biological treatment method employed. Since the data lists both chemical and physical treatment capabilities, buyers need to ensure the filler does not introduce unintended chemical reactions or physical blockages in the system. The absence of video outgoing inspection in some listings suggests that buyers should insist on third-party pre-shipment inspection reports to verify the physical integrity and dimensional accuracy of the delivered goods.
Cost Drivers and Commercial Terms
Cost drivers in this category are heavily influenced by the specific surface area and the complexity of the hole configuration, which directly impact manufacturing time and material usage. Models with higher surface areas, such as those exceeding 5500 m2/m3, typically command higher unit prices due to the increased precision required in molding and the greater volume of HDPE material used. Buyers should analyze the packing density of 105 kg/m3 to calculate the total shipping weight and associated freight costs, as this metric significantly affects the landed cost per cubic meter of treatment capacity.
Commercial terms must explicitly address the minimum order quantity, which the observed data suggests can be as low as one unit, allowing for flexible procurement strategies. However, the wide price range implies that bulk purchasing may yield significant discounts, so buyers should negotiate based on their projected annual consumption rather than immediate needs. It is also crucial to clarify the warranty terms, specifically the one-year coverage period, and to define the conditions under which the warranty applies, such as normal operating temperatures and pH levels.
Supplier Qualification and Quality Control
Supplier qualification should focus on their ability to consistently produce fillers with the specified dimensional tolerances and surface area metrics. Buyers must verify that the supplier has a proven track record in manufacturing HDPE products for the wastewater sector, as the material properties are critical for long-term performance. The brand name "Lvye" appears in the data, but buyers should not rely on a single brand and should instead evaluate multiple suppliers based on their quality control protocols and production capacity.
Quality control procedures must include rigorous testing of the specific gravity and density to ensure the filler performs as expected in the aeration tank. Since the specific gravity changes from 0.94-0.97 g/cm3 to 1.0 g/cm3 after filming, suppliers should provide data demonstrating this transition occurs within the expected timeframe. Buyers should also request samples to test the mechanical strength and hole integrity, ensuring the product can withstand the hydraulic forces and biological load without degradation over its service life.
Long-Term Procurement Checks
Long-term procurement checks must include periodic audits of the supplier's production consistency and their ability to maintain the specified service life of 15 years or more. Buyers should establish a schedule for reviewing the filler's performance in the field, monitoring for any signs of premature wear, clogging, or loss of specific surface area. Regular testing of the nitrification and COD oxidation efficiencies is essential to ensure the bio filler continues to meet the required treatment standards over time.
Supply chain resilience is another critical factor, as buyers must ensure the supplier can maintain a steady supply of fillers with the correct customs code and origin documentation. The observed lead times and transport options should be reviewed annually to adapt to changing logistics conditions and to prevent project delays. Finally, buyers should maintain a relationship with the supplier to stay informed about any updates to the product standards or improvements in the HDPE material that could enhance the system's overall efficiency.
FAQs
What is the service life of HDPE bio fillers?
The service life is generally 15 years or more. This durability is supported by the high-density polyethylene material construction, which resists degradation in wastewater environments. The specific gravity remains stable above 0.96g/cm3, ensuring long-term performance in biological treatment processes without frequent replacement needs.
How does the specific surface area affect efficiency?
Higher specific surface area, such as 5500m2/M3, provides more space for microbial attachment. This enhances nitrification efficiency to 400-1200gnh4-N/M3.D. The increased area allows for better BOD5 oxidation and COD removal, making the filler highly effective for industrial and agricultural wastewater treatment applications requiring rapid biological processing.
Can these fillers handle varying pH levels?
Yes, the fillers are designed to operate effectively within a pH range of 5 to 11. This broad tolerance ensures stability during biological treatment processes. The material remains intact and functional across these conditions, supporting consistent wastewater treatment performance without chemical degradation or structural failure in diverse industrial environments.
What are the applicable temperature ranges for use?
The applicable temperature range is 35 to 65 degrees Celsius. This thermal stability allows the bio filler to function efficiently in various wastewater treatment scenarios. The material maintains its structural integrity and specific gravity within this range, ensuring reliable performance in both ambient and elevated temperature industrial applications.
Which models offer anti-oil grease trap features?
The Bio Chip model features anti-oil grease trap capabilities. This design helps manage grease accumulation in wastewater systems. With 19 holes and a specific gravity of 0.94-0.97g/cm3, it supports effective filtration. This model is suitable for applications requiring resistance to oil interference while maintaining biological treatment efficiency.
How is the product packed for transport?
The product is packed for air, sea, or land transport. This flexible packaging ensures safe delivery from Guangdong, China, to global destinations. The packing density is 105kg/M3, optimizing shipping volume. This method protects the bio fillers during transit, maintaining their structural integrity and specific surface area upon arrival.











