Source High Porosity MBBR Bio Carrier for Sewage, Agriculture, Hospital
Source high porosity MBBR bio carrier media for industrial, agricultural, and hospital sewage treatment applications. Compare 30 available HDPE and polyurethane options with varying dimensions, densities, and customization services to find the ideal biological treatment solution for your project.
Key considerations
Products List
Comprehensive Sourcing Guide
High Porosity MBBR Bio Carrier Sourcing Guide
Product Scope and Observed Listing Signals
The market for high porosity Moving Bed Biofilm Reactor (MBBR) carriers presents a diverse array of configurations tailored to specific wastewater treatment needs. Current listings indicate a product count of thirty distinct items, with observed price ranges spanning from $0.21 to $305 USD. This wide variance suggests that buyers are not purchasing a single standardized commodity but rather selecting from various models based on specific dimensional requirements, material compositions, and customization levels. The presence of customized options in the listing signals that off-the-shelf solutions may not always meet the precise hydraulic or biological demands of a given facility, necessitating a closer look at the specific attributes of each carrier type.
Observed minimum order quantities (MOQs) range from 1 to 100 units, indicating flexibility for both pilot testing and large-scale industrial procurement. The listings highlight several specific item names and models, such as PE79s, PE02, PE13, PE38, and PE85, each associated with distinct dimensional specifications. For instance, the PE79s model is noted with a size of D254mm, while the PE02 model corresponds to D117mm. These variations in diameter and wall thickness are critical for determining the surface area available for biofilm growth and the carrier's buoyancy characteristics within the reactor tank. Buyers must align these physical dimensions with their existing reactor geometry and mixing energy inputs to ensure optimal performance.
Technical Specifications to Verify
Material composition is a primary technical factor, with listings indicating the use of High-Density Polyethylene (HDPE) as a standard material, sometimes specified as 100% virgin HDPE or customizable alternatives. Another observed material is Polyurethane, which may offer different mechanical properties or density characteristics compared to HDPE. The density of the carrier is crucial for maintaining suspension in the wastewater without excessive energy consumption for aeration or mixing. One listing specifies a density of 0.97g/cm³, while another notes a biofilm density range of 0.96-0.98g/cm³. These values are close to the density of water, which is essential for the free-moving nature of MBBR carriers, allowing them to circulate freely and maximize contact with the wastewater.
Dimensional specifications and surface area are equally critical for evaluating carrier efficiency. Listings provide various size options, including D2510mm, D1313mm, and 1610mm, with some products offering multiple dimensions such as 2510/254/117/106/258mm. The internal structure, often described by hole numbers or specific models like Mbbr06, influences the internal surface area where biofilm develops. One specification mentions a surface area greater than 800m²/M³, which is a key performance indicator for high porosity carriers. Additionally, the protective area is listed as 900m²/M³ for certain models, and weight per cubic meter varies, with observations of 120kg/M³ and 95kg/Cbm. These metrics directly impact the volumetric loading capacity of the treatment system and the required reactor volume.
Compliance and Safety Documentation
While specific certification statuses are not explicitly confirmed in the observed listings, the presence of ISO 9001 as a background standard suggests that quality management systems are relevant to the manufacturing process. Buyers should verify that suppliers adhere to recognized quality management practices to ensure consistency in carrier production. The material used, particularly HDPE, should be confirmed as safe for contact with water and wastewater environments. Since the usage spans industrial, agricultural, hospital, and home applications, the material must not leach harmful substances into the treated water. Verification of food-grade or potable water safety standards may be necessary for applications involving drinking water treatment or sensitive agricultural uses.
Documentation regarding the biological treatment method and the carrier's role in the process should be clearly defined. The listings indicate that the product is used for sewage treatment and biological treatment processes. Buyers should request technical data sheets that detail the carrier's performance in biofilm formation and stability. The life span of the carrier is a significant factor, with listings citing service times of 15 years, life spans of over 20 years, and some models with a 5-year life. These discrepancies highlight the need for clear warranty terms and performance guarantees. Understanding the degradation rate and expected maintenance requirements is essential for long-term operational planning and cost estimation.
Cost Drivers and Commercial Terms
The price range of $0.21 to $305 USD reflects the variability in carrier specifications, materials, and customization levels. Factors influencing cost include the material type, with virgin HDPE potentially commanding a premium over recycled options, and the complexity of the internal structure, which affects manufacturing time and material usage. Customization options, such as specific dimensions or colors, may also impact the final price. Buyers should analyze the cost per unit of surface area or per cubic meter of reactor volume rather than just the unit price to ensure a fair comparison between different suppliers and models.
Commercial terms such as packaging and origin also play a role in the total cost of ownership. Listings indicate packaging in woven bags, cartons, or woven bags with pallets, which affects shipping efficiency and handling costs. The origin of the products varies, with mentions of China, Jiaxing, and Shijiazhuang Hebei. Logistics costs, import duties, and lead times associated with these locations should be factored into the procurement decision. Additionally, the packing numbers, such as 260,000 pieces per cubic meter, influence storage requirements and installation logistics. Buyers should negotiate terms that account for these logistical considerations to minimize hidden costs.
Supplier Qualification and Quality Control
Supplier qualification should focus on their ability to provide consistent quality and meet specific technical requirements. The availability of customization services is a positive indicator of a supplier's flexibility and technical capability. Buyers should assess the supplier's production capacity and quality control processes to ensure that the carriers meet the specified density, dimensions, and material standards. The mention of specific models like HUAYU and PE79s suggests that suppliers may have proprietary designs or standardized product lines. Understanding the supplier's design philosophy and testing procedures can provide insight into the reliability and performance of their products.
Quality control checks should include verification of the carrier's physical properties, such as density, dimensions, and surface area. Buyers should request samples for testing before placing large orders to validate the supplier's claims. The life span and durability of the carrier are critical quality attributes, and suppliers should provide data or case studies supporting their longevity claims. The usage in diverse environments, including industrial, agricultural, and hospital settings, indicates that the carriers must withstand varying chemical and biological conditions. Suppliers should be able to demonstrate the carrier's resistance to abrasion, chemical degradation, and biofilm detachment under operational conditions.
Long-Term Procurement Checks
Long-term procurement success depends on the supplier's ability to provide ongoing support and consistent product quality. The service time of 15 years and life span of over 20 years for some models suggest that buyers should establish long-term relationships with suppliers who can guarantee product availability and performance over time. Buyers should monitor the supplier's financial stability and production capabilities to ensure they can meet future demand. Regular quality audits and performance reviews can help identify any deviations in product quality or service levels.
The evolving nature of wastewater treatment regulations and technologies may require adjustments to the carrier specifications or operational parameters. Buyers should stay informed about industry trends and regulatory changes that may impact their procurement decisions. The ability of the supplier to adapt to new requirements, such as changes in material standards or performance expectations, is a valuable attribute. Establishing a clear communication channel with the supplier for technical support and feedback can facilitate continuous improvement and optimization of the MBBR system. Regularly reviewing the performance of the carriers in the actual application can provide valuable insights for future procurement decisions.
FAQs
What materials are used for high porosity mbbr bio carriers?
These carriers are typically made from 100% virgin HDPE or customized polyurethane. The material choice ensures durability and chemical resistance in sewage treatment applications. HDPE variants offer a density around 0.97g/cm3, while polyurethane options provide specific biofilm density ranges. Customization is available to meet specific industrial or agricultural requirements.
How long do high porosity mbbr bio carriers last?
The service life generally ranges from 5 to over 20 years depending on the material and operating conditions. HDPE models often claim a 15-year service time, while polyurethane variants may exceed 20 years. Proper installation and maintenance in sewage treatment systems help achieve these lifespans. Buyers should verify specific life-time claims with suppliers based on their usage environment.
Can high porosity mbbr bio carriers be customized?
Yes, customization is available for dimensions, colors, and standards. Suppliers offer various sizes such as D25*4mm, D11*7mm, and D13*13mm. Models like PE79s, PE02, and PE38 allow for specific design needs. Packaging can also be adjusted, with options including woven bags, cartons, or palletized units. This flexibility supports diverse industrial and hospital sewage treatment projects.
What is the surface area of high porosity mbbr bio carriers?
The surface area typically exceeds 800m2/M3, supporting efficient biofilm growth. Some specifications list protective areas around 900m2/M3 for specific models. This high porosity enhances treatment efficiency in sewage systems. The exact surface area depends on the carrier model and size, such as the 11*7mm or 25*10mm variants. Buyers should check specific product data sheets for precise metrics.
Which specifications are common for high porosity mbbr bio carriers?
Common specifications include sizes like D25*10mm, D11*7mm, and 16*10mm. Models such as PE79s, PE02, and Mbbr06 are frequently used. Dimensions vary to suit different reactor volumes and flow rates. Standard sizes like 800*500*200mm may apply to packaging or specific unit configurations. Custom dimensions are also available to match unique engineering requirements for industrial or agricultural applications.
How are high porosity mbbr bio carriers packaged?
Packaging typically involves woven bags, cartons, or palletized units. Standard packing numbers can reach up to 260,000 pieces per cubic meter. Some suppliers offer woven bags with pallets for easier handling and storage. The packaging method ensures protection during transit from origins like China, Jiaxing, or Shijiazhuang. Buyers should confirm packaging details to optimize logistics and storage efficiency.





























